Category: Network Management

How you can use a Chromecast or Apple TV in that hotel room

There are situations where you may want to use a device like a Chromecast, Apple TV box or a network printer in a place like a hotel that has that headline public-access Wi-Fi network facility. Or you may want to make use of a portable Internet radio to listen to that Internet-hosted radio station at the worksite you are working at which has a public-access Wi-Fi network.

But you will find it difficult to use these kinds of devices on these networks for many reasons.

One of these is that if a public-access Wi-Fi network is properly setup, each device that is on the network is to be logically isolated so that other devices on that network can’t discover your devices. This is more to assure user privacy and data security for all network users.

But this will interfere with arrangements where you need to discover another device that you own that is on the network in order to use it, such as to “cast” media to a Chromecast or Apple TV. It can also interfere with file sharing between two computers or the use of portable NAS devices.

Sony CMT-MX750Ni 3-piece music system – this has been used to try Internet-radio functionality via a public-access Wi-Fi network

As well, some of these networks are set up with a Web-based captive portal or implement Wi-Fi PassPoint / Hotspot 2.0 or other authentication approaches. This is even if it is about assenting to the terms and conditions of service for use of the public-access Wi-Fi network. Here, these kinds of login experiences don’t work at all with devices that have a limited user interface like a small display or a user interface based around a D-pad. In a lot of cases, you will deal with devices that don’t even have a Web browser at all to work with these captive portals.

I previously covered Wi-Fi mobile networks and how they work. This included the use of travel routers or Mi-Fi devices, or NAS and similar devices that support “Wi-Fi to Wi-Fi routing”.

Travel Routers and portable NAS devices

Wireless NAS as a bridge between mobile client devices and another Internet-providing network. This is a similar setup for travel routers that support “Wi-Fi to Wi-Fi” operation.

One approach is to use a travel router or Wi-Fi-capable portable NAS that supports “Wi-Fi to Wi-Fi routing”. This means that the device connects to the public access network while creating its own Wi-Fi network, acting as a router. With Wi-Fi-capable portable NAS devices, you have to enable this function through something like enabling “Share Wi-Fi Connection”. You have to set the NAS so that the data that it has is not shared to the Wi-Fi network it is connected to, something you do when you set up “secure” or “private” operation.

Newer multimedia-ready hotel-room networks

Be also aware that there is an increasing number of network solutions being pitched to hotels and similar lodging establishments that create small home-network-grade Wi-Fi networks unique to each room or apartment. Some companies are even pitching this as part of their public-access Wi-Fi solution or building-wide network / Internet solution for residential or accommodation places like hotels or build-to-rent apartment buildings.

This is achieved through a distinct room-specific network served by a router installed in the room or a VLAN specific to a room or account and operates for the user’s tenure that works like a small home network.

These setups may also be to support a TV or audio setup enabled for Google Chromecast, Apple AirPlay, DLNA, Spotify Connect or other common home-network media protocols. The TV or audio setup is something that a hotelier would like to provide as an amenity to their “switched-on” guests who make use of online services and smartphones for their multimedia consumption. Such networks will typically have a “small-network-standard” Wi-Fi network covering your room or suite and will have an SSID network name and password peculiar to that network.

Most likely, if you do bring along your equipment and have it work with the room-specific multimedia network, you will be able to discover it as long as your computer or mobile devices are linked to that particular network. This could mean that your Spotify-Connect-capable wireless speaker could work with Spotify on your smartphone like it does at home if all these devices are connected to the room-specific network.

You may find that the hotel you are staying in may be set up this way and there could be printed material in your room about this kind of network existing and how to “get on board”. Typically this requires you to connect your smartphone and your devices to the room-specific network once you have activated that network connection.

Your regular laptop computer as a travel router

Your laptop that runs Windows 10 or MacOS 13 Ventura or newer operating systems also offers this same functionality

Laptops that run Windows 10 or MacOS 13 Ventura onwards can offer this same functionality natively. This is infact an approach that I used to run my Chromecast with Google Play as an audio-video output device for my Samsung Galaxy A52s smartphone at the Elsinor Motor Lodge in order to play my music through the motel room’s TV speakers.

Windows 10 onwards

Enable the Mobile Hotspot option in Windows 10 or 11 so your laptop becomes a travel router or mobile hotspot

1. Select “Settings” which is the gear-shaped icon to open the Settings menu
2. Select “Network and Internet” on the left of the Settings screen to open the Network and Internet window.
3. Enable Mobile Hotspot whereupon you will see the setup for sharing your computer’s Wi-Fi connection.
4. To see your hotspot properties, click the “ > “ next to the “Enable Mobile Hotspot” toggle. Note down the Network Properties on this screen which correspond to the SSID (Network Name) and Password for the Wi-Fi hotspot created by your Windows computer.
   

   These are the settings you need to go over to make sure your mobile hotspot works. The network details refer to what your devices need to be connected to.

MacOS 13 Ventura onwards

1. Click the Apple icon at the top left of the screen and select “System Settings”
2. Select “General” then select “Sharing”
3. Look for “Internet Sharing” and click the i nearby that option
4. Select the network connection that has the Internet service – this could be Wi-Fi or Thunderbolt Bridge.
5. Select the network connection the other devices will connect to using the “To Computers Using”, which will be Wi-Fi
6. You then have the option to create a Network Name (SSID) and Password for the hotspot network. Note down the SSID and Password you created for the hotspot,
7. Once everything looks OK, click Done and toggle Internet Sharing on.
8. Click Start in the pop-up message to confirm Internet Sharing.

Setting up your devices

Then, set up your devices like your network media player or network printer to link to the hotspot network you created in the above steps. Most network media devices will require you to go through the “manual Wi-Fi setup” process with some devices, especially speakers, requiring you to link to a “setup” Wi-Fi access point integrated in the device and running a setup Website hosted by that device.

That also means that your smartphone or tablet has to connect to the hotspot network if it is to benefit from the devices that you connected to that network. This would be important for media-sharing protocols like Chromecast or DLNA, or network-printing protocols like AirPrint or Mopria.

When you are finished

If you are using Windows or MacOS as a travel router, turn off the “Mobile Hotspot” or “Internet Sharing” functionality before you pack up your equipment. This is to assure secure operation and also saves on battery power for your laptop computer. With a travel router or portable NAS, you just simply disable the network-sharing functionality when you pack the equipment up.

Remember that the settings will stay the same for your Mobile Hotspot or Internet Sharing functionality so you don’t need to connect to a new Wi-Fi network if you use the same method again. This also holds true for travel routers or portable NAS units that implement network sharing.

In the case of that multimedia-ready hotel room network, you will still have to connect your equipment including your computer or mobile devices to these networks when you set yourself up in your room. This is because the guest credentials are likely to change as a means of protecting guests’ own equipment and experience.

Article

Monitoring of breathing irregularities

An algorithm can use WiFi signal changes to help identify breathing issues | Engadget

In-vehicle presence detection

From the horse’s mouth

Wi-Fi Alliance

Lisbon demonstration showcases how Wi-Fi Sensing can assist in a critical scenario | Wi-Fi Alliance

My Comments

The Wi-Fi Alliance is extending the Wi-Fi network technology beyond a local data network technology towards a presence and movement sensing technology.

This can exploit newer Wi-Fi technologies like Wi-Fi 5 onwards which implement MIMO multiple-RF-frontend technologies; or the increasingly-common multiple-access-point Wi-Fi networks. Here, it is about sensing disturbance in electromagnetic wave patterns that are the basis of radio technology whenever people or things move about.

A viable use case that has been demonstrated is a “child presence detection” setup for motor vehicles. Here, this detects the presence of a baby, small child or dog within a motor vehicle’s interior and alerts the driver to the child’s or animal’s presence. This is to avoid incidents like the toddler who was “forgotten” in a childcare facility’s minibus where the child was at risk of overheating for example due to it being asleep and out of sight in the vehicle.

This approach doesn’t just sense the presence of the child in a closed vehicle but also monitors biometric signs like breathing so it is a live person or animal. As well, it is based around two Wi-Fi access points within the vehicle – one on the driver’s side of the dashboard and one under the front passenger seat to create the sensing envelope. This is typical for most passenger cars with the front seat row and the back seat row but could be reworked for larger vehicles like station wagons or minibuses.

Once proven in a real world situation, this use case could be about a feature that is mandated by motor-vehicle safety standards bodies as part of a vehicle’s safety rating or as a mandatory feature for vehicles to have before they are on the market.

It is also being seen as a technology to identify whether someone in the house has breathing issues along with simple use cases like presence and motion sensing within the house for energy efficiency, security and convenience functionality in the smart home. I would also see it as a boon towards independent ageing at home by detecting falls for example.

What is happening is that Wi-Fi technology will come in to play for more than just a backbone for a home network. Here, it would be about safety or in-home healthcare that assures some form of independence. This is while it can still serve that role of a data network backbone.

Some building setups may not allow a Wi-Fi router like this D-Link Wi-Fi 6 unit to work at its best in covering the house

With Wi-Fi 7 around the corner, a company who is designing silicon for that new Wi-Fi standard is running a line that wired networks will be obsolete.

But it is a bit too hasty to state that because there are situations where the wired network will still be relevant as a backhaul for that Wi-Fi 7 wireless network. Here, I encompass both the Ethernet networks built on Category-5 or Category-6 cable along with “wired no-new-wires” networks like HomePlug powerline or G.Hn networks based on powerline, telephone wire or TV coaxial cable.

How are your premises built?

That thick wall may cause Wi-Fi not to work properly

If you find that your premises is built of dense building materials like brick, masonry or cinder-block / concrete block, you may find that you have trouble with your Wi-Fi network’s coverage. This is more so where any of the interior walls uses those kind of materials.

Examples of this may include a double-brick house that had an extension built on to it or a house that has one or more brick interior chimneys. Similarly, apartment dwellers may run in to this problem if two or more of their apartment’s interior walls touch their building’s “service core” plenums used for the elevators, garbage chutes or as “risers” for plumbing and wiring. Such a plenum is typically made of thick or reinforced concrete to satisfy noise-level or fire-safety expectations.

Another building material to watch for is metal. This may be used for reinforcement like with reinforced concrete, or it could be used as a mesh or for decorative effect like with corrugated iron used to give that rustic look. Add to this insulation material that is augmented with foil to improve its effect. This material has that “Faraday cage” effect where it reflects radio waves rather than passes them.

As well, the radio frequencies that are more affected are those at the higher end of the spectrum due to their short wavelength. This will be more so as wireless networks extend in to the 6GHz territory.

These situations will call for a wired network backhaul in order to create building-wide coverage for your Wi-Fi network.

Multiple-building setups

Methods to link buildings in a multiple-building home network

Another situation that will be of relevance to suburban and country living is the want to connect secondary buildings like a barn, cabin or granny flat to your primary house. This would also apply to the use of a caravan or campervan as secondary living quarters.

It would be more so as you think that bringing your home network and Internet to these buildings that you expect to have as part of your living or  space and is something I have covered in a feature article and infographic. Here, a wired link can earn its keep in these kind of setups and may allow you to be more flexible with building materials for the secondary buildings or main bouse.

A new-wire approach can be in the form of Cat5e cable could give up to 2.5 Gigabits per second bandwidth over 100 metres, something that would be affordable for most. If Cat6a cable was used, this could go to 10 Gigabits per second for the same length. The more premium fibre-optic technology would be able to achieve 300 metres for stability and 10 Gigabit throughput. The Cat5e setup would come in to its own with fixed outbuildings built relatively close to the main house like in most low-density living areas including most smallholdings.

Use of powerline-based “wired no-new-wires”  like HomePlug AV2 or, especially G.Hn HomeGrid, would come in to its own here. This is more so if you are renting your home or are dealing with caravans or campervans being purposed as sleepouts for example and you have them connected to your home’s mains supply.

Other factors to consider

Some devices may also cause issues when it comes to Wi-Fi coverage due to their design.

For example, a flat-screen TV will use a significant amount of metal as part of its chassis and this can act as an RF barrier. Similarly furniture made out of sheet metal like the traditional office filing cabinet can also be an RF barrier.

These “RF barriers” can effectively create an “RF shadow” if the client device is located close to them and such items are located close to each other.

It is also worth considering that wired network technologies, especially those based on Category 5 or Category 6 twisted pair copper cable or fibre-optic cable will be developed in a way to have more bandwidth than Wi-Fi-based wireless technologies. Here, it takes advantage of “pure-play” wiring infrastructure that is predictable in signal quality and reliability. This will underscore the role of these technologies as a reliable high-speed backhaul option between devices or Wi-Fi access points.

Conclusion

Due to facts like dense or metallic building materials, multiple buildings on a property or metallic objects, wired networks will still be considered relevant in the era of Wi-Fi 7. Add to this that wired networks, especially those using dedicated wiring infrastructure, will still be worked on as something that offers higher data speeds than equivalent Wi-Fi technologies.

Devolo Magic 2 Wi-Fi network extender kit that works on G.Hn HomeGrid powerline network technology

The International Telecommunication Union’s G.Hn HomeGrid standard is expected to become a significant new direction in “wired no-new-wires” network technology. Such technology makes use of wiring infrastructure that is in place within a premises for purposes such as providing AC mains power, providing a telephone service or connecting a TV to an outdoor TV antenna or cable / satellite TV setup.

This is for both the in-premises local-area network and for the Internet / WLAN “access” network that brings your Internet service to your home-network router.

This technology primarily works as an alternate powerline / AC-wire network technology to the established HomePlug family of powerline-network technologies. But it is also competing with MoCA for the TV coaxial-cable medium and the G.Hn HomeGrid Forum took over the HomePNA standard for phone-line-based on-premises networks.

Media types

Powerline

Use of a building’s AC wiring infrastructure is considered more credible due to the fact that there are many power outlets across a typical home. I have even had good experiences with this kind of network especially for extending Wi-Fi coverage or even extending a home network out to a detached garage that served as a “man-cave”.

The HomePlug Alliance had effectively abandoned continual development of the HomePlug series of powerline-network standards. At the moment, the latest standard is the HomePlug AV2 MIMO which can go to 2000Mbps,  That is although a significant number of device manufacturers and IT retailers are continuing to make devices that work to the 1200Mbps bandwidth.

G.Hn HomeGrid has taken the powerline network further by offering the HomeGrid MIMO variant that cam move at least 2000Mbps of data. Like the HomePlug AV2 MIMO standards, this uses the active / phase / line, neutral and earth / ground wires of the mains-power plug to carry the data, thus assuring users of robust data transmission across a building’s general AC wiring infrastructure better.

G.Hn HomeGrid powerline technology could appeal to apartment blocks where multiple powerline-based “wired no new wires” networks could exist

The G.Hn HomeGrid powerline network standards have been refined also to increase data transmission robustness where there are many powerline networks operated together. This would be, perhaps, a situation that takes place within a large multiple-premises building like an apartment block, shopping centre or office block and would suit today’s urban-design expectations of mixed-use multi-premises developments. Some people would also hold this true for a dense neighbourhood of terrace / townhouse, semi-detached or similar homes.

A G.Hn HomeGrid powerline network can co-exist with a HomePlug AV2 powerline network in the same building but isn’t directly compatible with each other. This is similar to first-generation HomePlug powerline networks operating alongside second-generation HomePlug AV / AV2 powerline networks.

Personally I see G.Hn HomeGrid being used to “take the powerline network further” to higher bandwidths, increased robustness, further distances (500 metres compared to 400 metres for HomePlug AV2 MIMO) and other future needs.

At the moment, Devolo are investing in this technology with their Magic series of powerline network products including some Wi-Fi access points and offering some of these devices to consumers.

But some other network-equipment vendors who have retail-market presence are offering at least a powerline-Ethernet adaptor that works to G.Hn HomeGrid standards as part of their powerline-network product ranges. It is a way for them to put a foot in the door for higher-bandwidth powerline network segments.

TV coaxial cable

Another medium type that is supported by G.Hn HomeGrid is the TV coaxial-cable infrastructure. This would be associated with cable TV, an outdoor TV antenna (aerial) or a satellite dish and there may be extra TV coaxial-cable sockets installed around the house so you can have additional TV sets or use an easily-moveable TV in other rooms.

The Multimedia Over Coax Alliance have created a standard for using TV coaxial-cable infrastructure. But G.Hn HomeGrid have seen intention in using this same medium for the same purpose and could be working it to higher capacities or increased robustness.

Phone line

Yet another medium type that is supported by this same standard is traditional telephone cabling. This was worked on by HomePNA but the HomeGrid Alliance took over that concern and embodied it in to the G.Hn HomeGrid standard.

This infrastructure would have come about for established homes where there are multiple phone sockets installed through the house’s lifetime. This would be due to the installation of extension phones or to allow one to move a corded phone between different locations easily before cordless phones became a cost-effective approach to flexible landline telephony.

Use profiles

The G.Hn standards implement two relevant use profile cases.

One is called HomeGrid which describes connecting network devices within the premises as part of a local area network.

The other is called Gigawire and is described as being for “access” connectivity. This is to connect between the network’s router WAN (Internet) connection and a modem that is used for providing Internet service. This use case encompasses fibre-copper setups within extant multiple-premises buildings used to provide Internet to each premises with the building. Or it can encompass a single-premises building where the modem associated with the Internet service is installed in an inconvenient location but the Wi-Fi router has to be installed in the centre of the premises for best results.

All of the media connectivity types such as powerline, phone line or TV coaxial cable are able to work in these different use profiles. But there is a question about whether the same medium type could be used for access or in-home connectivity at the same time.

Media-type agnostic approach

The G.Hn HomeGrid standard is being underscored as a media-layer-level standard for the “wired no-new-wires” networks with the goal to make it easier to bridge between different media types.

This could be about the arrival of lower-level bridge devices that link between the different media types with these devices not needing higher-level processing to do so. Most likely such devices will have the bridge functionality but also have a Cat5 Ethernet connection of some sort.

Further evolution of this standard

Currently this standard is being implemented as a “wired no-new-wires” approach to creating a multi-gigabit home network that has a bandwidth of 2.5Gbps or greater. It is to complement multi-Gigabit Ethernet and Wi-Fi 6/6E wireless network technology in raising your home network’s bandwidth making it fit for multi-gigabit broadband Internet services.

But there is further work needed to come about from G.Hn HomeGrid Forum for certain issues. For example, there will be a need to support VLAN network setups using the “wired no-new-wires” technologies. This would come in to play with routers that support a “guest network” or “community network” in addition to a primary network; or for VLANs that are used as a quality-of-service measure for VoIP or IPTV setups.

They would also have to examine the use of an access network and an in-premises network working on the same media bearer.

This could work with a fibre-optic extension setup that would normally use a G.Hn HomeGrid access network on a particular media type like phone line, power line or TV coaxial cable to bring the WAN (Internet) link from a garage or basement where the fibre-to-the-premises optical-network-terminal is installed to the living area where the home network router is installed. But the situation would change where that same basement or garage is purposed as a living space of some sort and a G.Hn HomeGrid in-premises LAN segment is to be created to make that space part of your home network.

Or there is the idea with a multiple-premises building where G.Hn HomeGrid technology is used for the in-building access network to each premises but there is a desire to extend a premise’s LAN or Wi-Fi to a common living area within the building.

Conclusion

The G.Hn HomeGrid and GigaWire standards are something that we have to watch and consider when it comes to “wired no-new-wires” network links for our home networks. In some cases, this technology may be about a “clean-slate” approach to your “wired no-new-wires” network segments.

Articles

Next generation home networks could be implementing Wi-Fi 7 in the next few years

Wi-Fi 7 to Make a Splash at CES 2022, Led by MediaTek | Digital Trends

Wi-Fi 7 is coming, and Intel makes it sound great | Network World

My Comments

Wi-Fi 6 is already established as a wireless network standard and this is being taken to  Wave 2 with some incremental improvements.

But Wi-Fi 7, is to be coming soon and is actually the IEEE 802.11be wireless-network standard which is expected to be the follow-on to Wi-Fi 6.

It is expected to offer 320MHz bandwidth for each RF channel and provide a theoretical link-layer throughput of 96.1Gbps. As well, a Wi-Fi 7 wireless network segment is expected to be able to work on the 2.4 GHz, 5GHz and 6GHz radio bands.

This will support multi-link operation where network devices can work on multiple channels across multiple wavebands at once. This allows for a “fat pipe” that carries more data along with reduced latency (important for games or videocalls) and increased operational robustness. This latter benefit is provided by allowing particular data to use particular channels.

Wi-Fi 7 is to lead wireless network segments towards multiple-gigabit networking. As well, Wi-Fi 7 will have integrated support for Wireless Time-Sensitive Networking which assures synchronous delivery of data to multiple endpoints with use cases being multichannel sound, multi-camera setups or robotics and industrial automation.

This technology will take time to come to fruition even if it is “cemented in stone” by the IEEE now. There will be the need to see the necessary silicon being made available to client-device and network-infrastructure manufacturers so they cam implement it in their own products. This will also include the requirement to to see power-efficient Wi-Fi 7 client-device silicon implementations before a significant number of portable devices come with this technology.

Then the client and network infrastructure devices will appear but be at that price point and marketing position that only appeals to early-adopters who will pay a premium to have the latest and the greatest. But a few years later will see Wi-Fi 7 be a mature wireless-network technology.

But this will come in to its own with ubiquitous ultra-high-definition TV, augmented and virtual reality along with computing environments pitched towards gamers, creators and mobile-workstation users.

Articles

Where Wi-Fi HaLow fits in with other Wi-Fi technologies

This new Wi-Fi technology with a 1km range is the future of long range IoT applications | Business Insider India

‘The Wi-Fi portfolio is unmatched’: Wi-Fi Alliance on Wi-Fi Certified HaLow (rcrwireless.com)

Wi-Fi HaLow could be the next IoT enabler – TechRepublic

From the horse’s mouth

Wi-Fi Alliance

Wi-Fi CERTIFIED HaLow™ delivers long range, low power Wi-Fi® | Wi-Fi Alliance

Wi-Fi CERTIFIED HaLow (Product Page)

My Comments

A Wi-Fi network technology that is being put on the map at the moment is Wi-Fi CERTIFIED HaLow a.k.a Wi-Fi Halow.

This network technology is based on IEEE 802.11ah wireless network technology and works on the 900MHz waveband. It is about long-range operation of approximately 1 kilometre from the access point and very low power operation that allows devices to run for a year on commodity batteries like a single 3V coin-size cell or a pair of AA-size Duracells.

The power requirement may be a non-issue for devices like HVAC thermostats that are wired to the heating system they control. But they may be an issue with devices like movement sensors or smart locks that are dependent on their own battery power. As well, the low power requirements that Wi-Fi HaLow offer could be of benefit towards devices that implement energy-harvesting technology like solar power or kinetic energy.

This low-bandwidth Wi-Fi specification is intended to complement the other Wi-Fi specifications used with your home or business network. But it is focused towards the Internet of Everything especially where the devices are to be operated across a wide radius like a farm or campus.

The network topography for a Wi-Fi HaLow network segment will be very similar to the standard Wi-Fi network. That is where multiple client devices link to an access point, but there should be the ability for a mobile device to roam between access points associated with the same Wi-Fi network.

Compared to the likes of 802.15 Zigbee, Z-Wave, DECT-ULE, Bluetooth LE and similar Internet-of-Things wireless technologies, this is meant to avoid the need for special routers when there is a desire to link them to IP-based networks.

This is because this technology effectively uses the same protocol stack as our Wi-Fi networks save for the layers associated with the radio medium. It also means that the same security, connectivity and quality-of-service protocols that are part of Wi-Fi nowadays like EasyConnect and WPA3 can be implemented in Wi-Fi HaLow devices.

At the moment, you would need to use a Wi-Fi HaLow access point to get any Internet-of-Things devices on to your network and the Internet. It may be a small device that plugs in to your existing home network router or network infrastructure. But a subsequent Wi-Fi access point or router design could have built-in support for this standard thus making it more ubiquitous.

The use cases being positioned for Wi-Fi HaLow technology would encompass the smart home, the smart building and the smart city where all sorts of “Internet-of-Things” devices are acting as controllers or sensors. It is also encompassing vertical use cases like agriculture, industry and medicine where sensors come in to play here.

At the moment, this kind of connectivity will exist as an alternative to Zigbee, Z-Wave and similar technologies especially where IP-level connectivity and functionality is wanted at the device. It may not have ready appeal in use cases where a direct connection to Internet-based technology may not be required.

On the other hand, a use case could allow for a “hub and spoke” approach to the Internet of Things where a device can connect to accessory peripheral devices using Zigbee or Bluetooth but link to the home network and Internet via WI-Fi HaLow. An example of this could be a retrofit-install smart lock which supports the use of accessory input devices like keypads, NFC card/fob readers and contact sensors.

Wi-Fi HaLow could be seen as a direction towards capable low-power long-distance wireless networking for Internet of Things, especially where direct Internet / LAN network connectivity is desired out of the application.

Articles (Product Reviews on other Websites)

TP-Link Deco P9 distributed Wi-Fi kit with HomePlug AV2 backhaul

TP-Link Deco P9 mesh router review: blanket your whole home in speedy Wi-Fi | T3

TP-Link Deco P9 Powerline Mesh WiFi System Review – Blacktubi

From the horse’s mouth

TP-Link

Deco P9 Wi-Fi / HomePlug AV powerline Mesh Network set (USA Product Page)

My Comments

A problem with most distributed-Wi-Fi setups is that certain building materials and construction techniques can reduce their performance. Examples of this include where an extension is built on to a house that has double-brick or sandstone walls, or you have foil-lined insulation or metai-based window tinting as an energy-saving measure.

Here, your distributed-Wi-Fi system may support Cat5 Ethernet as a backhaul option in lieu of Wi-Fi wireless technology. But you may find problems with, for example, having Cat5 Ethernet pulled through the double-brick wall. Or you simply are renting your premises and cannot easily have additional wiring installed there.

You would then have to consider using HomePlug AV2 powerline technology to create a wired backbone for your setup. Most setups would require you to buy a pair of “homeplugs” which simply bridge the powerline network segment to a Cat5 Ethernet segment and use these devices to create that wired backhaul. Only a handful of manufacturers have dabbled in the idea of mixing HomePlug-based powerline technology and distributed Wi-Fi technology at the moment.

AVM offered a firmware upgrade for their Fritz! devices including their Fritz!Powerline HomePlug adaptors and access points for this purpose. Here, you could manage the distributed Wi-Fi network through your Fritz!Box Web management interface and this exploited the different backhaul options like Wi-Fi, Ethernet or HomePlug powerline that the devices offered.

Now TP-Link has implemented Wi-Fi 5 and HomePlug AV2 1000 to create a credible flexible distributed-Wi-Fi setup. This system, known as the Deco P9, can work with other TP-Link Deco distributed Wi-Fi devices using the best Wi-Fi backhaul or, where applicable, Ethernet or HomePlug AV powerline wired backhaul that the device offers. It does combine the wired and wireless technologies for use as a wider-bandwidth backhaul or as a failover measure.

One of these review articles said that the HomePlug setup offered by the TP-Link Deco P9 system excelled when it came to latency which they considered for gaming use cases. The other review described the P9 system as being fit for purpose with houses that have cellars and garages, more as a way to do away with those range extenders. I would add this this as being fit for extending Internet to bungalows, granny-flats, converted garages or similar outbuildings that have AC wiring to the main house — the HomePlug AV2 technology may do this job better due to its increased robustness. This kit’s use of HomePlug AV2 technology may even come in to its own with that static caravan or campervan used as a sleepout and connected to the main house by AC wiring.

.. and may work well for that man-cave garage or barn

More companies could come on board with distributed-Wi-FI devices that use HomePlug AV2 MIMO technology as a backhaul option to answer these needs. Similarly, they could offer HomePlug AV2 adaptors that can work in tandem with their distributed Wi-Fi devices that offer Ethernet as a backhaul option.

At least there is another company offering HomePlug powerline network connectivity as a wired backhaul option for their distributed Wi-Fi setups.