Over the last decade or so, we have seen a rapid increase in the number of devices connecting to the home network. The popularity of IoT has meant that even devices that are not mobile require communication over the Internet, but, their placement might be far away from the primary router in the house. Given this situation, it is essential to find a reliable way to extend the reach of the home network. There have been many attempts to come up with a standardized way to do it, but consumers have been forced to use range extenders, powerline networking kits and the like to increase the reach of their home networks.

Given the multitude of available options to extend the reach of home networks, what underlying technology should consumers look for? Today's article provides a comprehensive overview of the available options as well as a quantitative comparison in one particular residential scenario - a 1800 sq. ft. single-level California house built in the 1970s.


A discussion of the various ways to extend home networks must always be prefaced with a simple suggestion - if it is at all possible to wire up the major rooms in the house with Cat 6 cables, the reader should definitely go for it. Wi-Fi access can then be made available in remote locations with the use of access points that piggy-back on the Cat 6 backbone. This article tackles situations where wiring up the residence with Cat 6 cables is not a practical option.

Most residences have some sort of wired infrastructure going around - everyone has electrical wiring that is bound to be in every room. Some have telephone wires already present, while others have a coax cable network. In order to expand the reach of home networks, there are ways to use all of the above media. In addition to wired backhauls based on these, Wi-Fi itself can be used for this 'last feet' data transfer. Encompassing all these is the concept of hybrid networking - i.e., a way to get communication over different media to work together seamlessly in order to extend the network reach.

The industry recognized the need for hybrid networking around 5 years back and set up the IEEE P1905 working group. The approach, mainly spearheaded by Qualcomm Atheros, involved usage of HomePlug powerline chipsets as well as MoCA (Multimedia-over-Coax Alliance) chipsets in Wi-Fi routers to ensure a seamless connected digital home. However, the added price for the functionality led to the vendors largely giving this endeavor a miss. As of 2016, there are no known hybrid networking packages in the market. That said, there are many vendors who have range extenders that use a powerline backhaul (such as the TP-LINK AC1200 Wi-Fi Range Extender AV1200 Powerline Edition). Even though these products fulfill the basic requirement of extending the home network, they are not marketed as a unified solution with a primary router.

Netgear does have the Nighthawk DST (Dead Spot Terminator) kit hat combines a Nighthawk R7000 with a Broadcom-based HomePlug AV2-compliant PLC chipset. However, it is more of a limited release with the kit being sold only through Best Buy.

ITU's G.hn (G.9960) specification for home networks has been of interest due to its ability to operate over different media (telephone wiring, coax cables, and power lines). The technology had only been on paper for a long time, but, in early 2015, we saw some powerline networking products based on G.hn appear in the retail market. Marvell Semiconductors is a big proponent of G.hn. The current G.hn powerline adapters in the market are all based on their chipsets. Recognizing the need for hybrid networking, ARRIS has made an attempt to integrate proven 802.11ac Wi-Fi solutions with Marvell's G.hn platform. The resulting product portfolio has enabled consumers to seamlessly extend the reach of their home networks. Marketed under the RipCurrent moniker, these products include a primary Wi-Fi router and optional powerline extenders as well as a Wi-Fi range extender with a powerline backhaul. They target homes that end up with Wi-Fi dead spots when a single router is deployed.

Mesh Wi-Fi has emerged as one of the interesting approaches to residential Wi-Fi over the last 12 - 18 months. Even though it is being marketed as something revolutionary, the concepts have been around for a long time. In fact, Wi-Fi range extenders operate on almost the same principles, but, mesh Wi-Fi systems adopt a few strategies to make users think that they have a magical solution:

  • By selling units in packs of 3, they guarantee that a vast majority of the homes can be completely blanketed with Wi-Fi
  • By adopting an attractive industrial design, they ensure that users don't need to keep the networking equipment hidden away. This helps in minimizing the attenuation of the Wi-Fi signals
  • The setup process and user experience are no longer bound by the traditional router configuration / usage interfaces. In a mobile-first world where the majority of the consumers prefer their experience to be dumbed down, many of the mesh Wi-Fi vendors have an app-based setup process and monitoring that focuses on basics and disregards advanced features. The ease of use has translated to popularity amongst consumers who are not tech-savvy.

The basic operation models for wireless range extenders and mesh Wi-Fi router units are similar. Some mesh systems such as the Netgear Orbi use a separate channel for the backhaul (communication between the member units). This ensures that there is no airtime wasted when there are active wireless clients.

Mesh Wi-Fi systems can either adopt a 'spokes' model, with a primary router and the satellites talking directly to it, or, a 'real mesh' model where a node can have one or more hops to reach the primary router. The effectiveness of either approach is dependent on the location of the primary router relative to the dead spots in the house, as well as the number of member nodes.

Most mesh Wi-Fi systems currently in the market are based on Qulacomm's Wi-Fi Self-Organizing-Networks (SON) solution. A detailed perusal of the technology makes it evident that it is the brains behind the marketing cloak of mesh Wi-Fi systems from Netgear, Google, Luma and eero.

Readers now have a broad understanding of the various options available to extend the reach of home networks. In the next section, we will take a look at the various kits that were evaluated and the approach under which each of them falls. The evaluation methodology is also spelt out in detail. A couple of sections looking at the performance numbers is followed by some concluding remarks.

Evaluation Methodology and Tested Configurations
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  • neo_1221 - Wednesday, December 7, 2016 - link

    Actually the Ubiquiti stuff is quite reasonably priced - you can get an AC Lite (2x2) for $75 or the Pro (3x3) for $130.
  • Impulses - Wednesday, December 7, 2016 - link

    That's pretty much the same as any decent consumer grade AC router... Gonna have to look into it if/when my 2x ASUS RT-AC68 bite it (one is bridged), they've been working alright for a while now. If they last as long as my first (and only other) router, WRT54Gs, it could be a decade. The fam will just have to deal with multiple SSID until then... :P
  • name99 - Thursday, December 8, 2016 - link

    That's misleading, You also have to buy the PoE infrastructure because most people won't have that in their houses.
    And ubiquiti is still a pain to set up. Yeah, yeah, we all know you're an IT stud and consider it trivial, but be honest here. Would you give your parents or your girlfriend 3 ubiquiti boxes, tell them "oh, it's easy to set up, totally obvious" and leave them to it?
  • vanilla_gorilla - Thursday, December 8, 2016 - link

    Are your parents posting comments on Anandtech? I'm pretty sure anyone reading this site is capable of navigating the Ubiquiti GUI. The only "PoE infrastructure" you need are the (included) power injectors.
  • igavus - Thursday, December 8, 2016 - link

    There's mikrotik, but probably won't end up being much cheaper.. I mean, it's a commodity product and the margins aren't that high
  • sor - Wednesday, December 7, 2016 - link

    The zero handoff doesn't work for their AC products. It's really only useful for VOIP anyway, as a properly configured setup will roam with minimal downtime anyway. OP needs to see if they have RSSI settings for their APs, and possibly turn signal strength down. The APs should be kicking off clients when the link is weak.

    The advantage of the "mesh" packages are that the APs are preconfigured to only allow clients with good signal. If you build your own you have to do that yourself, because single APs are preconfigured to serve as much as possible.
  • jamyryals - Wednesday, December 7, 2016 - link

    Awesome, I'll look into min RSSI, thanks.
  • phoenix_rizzen - Wednesday, December 7, 2016 - link

    Just configure all your APs to have the same SSID and let the clients switch between them as the signal degrades. You only need fancy "enterprise" APs for really old devices that don't handle the switch very well. Android and iOS devices from the past few years have gotten much better about switching between BSSIDs when stronger signals are detected, without changing SSIDs.

    I ran this setup at home with 802.11n APs all running off the same SSID without any issues. I only swtiched to separate SSIDs when I replaced one with an 802.11ac AP. Having the same SSID for 2.4 GHz and 5 GHz networks didn't play well with our Samsung phones (would default to the 5 GHz radio, even if the 2.4 GHz signal was stronger / provided a faster link). Since switching to separate SSIDs for each band, things have been much smoother.

    The "enterprise" gear works slightly better as it's the APs managing the connection and will kick the device off, forcing it to connect to a stronger signal, but it's not required to make single-SSID networks work.
  • sor - Wednesday, December 7, 2016 - link

    Setting min RSSI settings for the 2.4 and 5 with the same SSID might help. It did for me. It's really key to ensuring that the clients are only using APs and frequencies that are actually good and usable.
  • Dug - Wednesday, December 7, 2016 - link

    Change the roaming aggressiveness in the nic properties if you are running Windows. It will switch a lot quicker to the stronger signal.

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