Your Entire Setup Is Bottlenecked by a Box Behind Your TV That You Got Free From Your ISP and Have Not Thought About Since the Year You Moved In.

You have a $4,000 PC. A 4K OLED monitor. A mechanical keyboard. A chair that costs more than some people’s laptops. Your game is downloading at 38 megabits per second. Your router is why. Here’s the framework for the one component in your entire life you’ve been blaming on someone else — and four WiFi 7 upgrades on Amazon that will make you furious about the years you wasted.

Photo by Glenn Carstens-Peters on Unsplash

Alex has a router.

He doesn’t think of it as “his router” the way he thinks of his GPU as his GPU or his keyboard as his keyboard. He thinks of it the way he thinks of his building’s water pressure: as an ambient condition of his existence that he didn’t choose, can’t really change, and has no particular opinion about except when it’s bad. It’s the thing his ISP sent him in a brown box when he signed up for internet in 2019. It’s been sitting behind the TV ever since, under a light layer of dust, its little lights blinking in the quiet way of a device that is doing something but not saying what.

His internet plan is 1 Gigabit.

His gaming PC — the one this series has been building toward for nine articles — receives approximately 180 megabits of that gigabit when it’s three rooms away from the router. His phone gets 340 megabits in the same room as the router and 110 megabits in the bedroom. His video calls from the home office freeze at moments of visual complexity. His game downloads, which should take minutes on a gigabit plan, take hours and he’s been blaming his ISP for years.

He has never once suspected the router. The router is the ISP’s equipment. The ISP is the villain in this story. The ISP is also completely innocent of the specific crime Alex has been accusing them of, because 1 Gigabit is arriving at Alex’s house just fine. It just cannot get out of the router’s way fast enough to reach Alex three rooms away, because the router’s radios are from 2019, its antennas were designed to specification-check a box rather than cover an apartment, and it’s simultaneously handling nineteen devices — two laptops, four phones, three tablets, a smart TV, two game consoles, a robot vacuum, a smart doorbell, four smart bulbs, two smart plugs, and a printer Alex has forgotten he owns — with the resource allocation strategy of a 2019 device that was designed in 2018 for a home that had half that many connected devices.

Alex has built a Ferrari. The road it drives on was paved in 2018. Nobody told him the road was part of the build.

Maya replaced her router last year.

Not with the ISP’s “upgraded” unit, which would have cost $15 extra per month forever and contained hardware approximately as old as the one it replaced. With a WiFi 7 mesh system — three nodes covering her townhouse, each talking to the others on a dedicated backhaul channel that doesn’t compete with the channels her devices use to connect, with a tri-band radio design that can hand off her devices between nodes as she moves through her home without dropping packets or requiring her to manually switch networks.

Her 1 Gigabit plan delivers approximately 900 megabits at her gaming desk. It delivers 850 in her bedroom. 820 in the kitchen, where her phone connects automatically without her noticing the transition. Her video calls don’t freeze. Her game downloads at the speed her ISP is actually delivering. Her smart home devices — nineteen of them, the same count as Alex’s — each get dedicated spectrum rather than competing for the same crowded channel.

She did not change her ISP. She did not upgrade her internet plan. She spent $279 on a piece of hardware and stopped blaming the wrong party for a problem she was now solving herself.

The performance difference between Alex’s setup and Maya’s is not 1 Gigabit versus something slower. It is the difference between a road that reaches your destination and a road with a toll booth staffed by a 2019 router that’s tired.

Here is the thing that nobody in the PC building community talks about directly, probably because routers aren’t RGB and don’t go inside the case and don’t show up in benchmark charts: your router is the first component every signal from every device in your home passes through, every time, in both directions. The GPU that renders your game outputs to a monitor, yes — but the multiplayer session that game is participating in, the download that installs the game, the Discord call happening alongside it, the stream you’re watching on a second monitor, and the smart home request your voice assistant just made on your behalf all flow through the router. Every millisecond of latency the router adds to your gaming packets is a millisecond of latency you experience in the game and attribute to your ISP. Every dropped packet in a video call is a freeze you explain as “my internet being weird” when it is, specifically, your router failing to arbitrate between too many devices on too few channels under too much load.

The router is the component nobody budgets for, nobody researches, and nobody replaces until it stops working entirely — at which point they call their ISP and get another one of the same kind that created the problem in the first place. It is the IKEA desk from the last article, except instead of holding up your monitors it holds up your entire digital life, and instead of wobbling it’s just quietly rationing bandwidth to a house full of devices that have, since 2019, tripled in number and quadrupled in the demands they make.

This framework fixes that. It will also, I should tell you up front, make you furious at the router behind your TV in approximately the same way the monitor article made you furious at the 1080p 60Hz panel you’d normalized for years — by giving you a reference point that reveals what you’ve been tolerating as something you chose.

What Routers Actually Are in 2026 (And Why WiFi 7 Is the First Upgrade You’ll Actually Feel)

A baseline before the framework, because router marketing has its own impenetrable vocabulary — AX this, BE that, tri-band, quad-band, MLO, OFDMA — that reads like someone fed the IEEE 802.11 spec into a random tech acronym generator and decided the result was consumer communication.

WiFi 7 (802.11be) is genuinely the upgrade that matters, and here’s why this time is different from every previous WiFi generation announcement. WiFi 6 (2019) added efficiency improvements — OFDMA, BSS coloring, target wake time — that mattered in dense device environments but didn’t dramatically improve the raw speed most people experienced in their home. WiFi 6E (2021) added the 6GHz band, which was fast and clean and uncongested, but required both the router and the device to support 6GHz, limiting practical benefit to a narrow window of newer devices.

WiFi 7 adds Multi-Link Operation (MLO): the ability for a single device connection to simultaneously use multiple frequency bands — 2.4GHz, 5GHz, and 6GHz — at the same time, aggregating them into a single faster, more reliable connection. This is not theoretical. On a phone or laptop that supports WiFi 7, MLO produces a connection that uses whichever band has capacity available at any given moment, distributing load across all three automatically. The result is higher throughput and dramatically lower latency variance — the kind of connection that doesn’t suddenly stutter when a neighbor’s microwave turns on or when all your devices decide to sync simultaneously. For gaming specifically, latency consistency is more valuable than peak bandwidth, and MLO is the feature that actually improves latency consistency in the way WiFi generations have been promising since WiFi 5.

Mesh networks have become the correct default for anyone whose home has more than one room. A single router, regardless of its generation or price, has a physics problem: radio signals attenuate with distance and are absorbed or reflected by walls, floors, and the specific miracle material that seems to fill most apartment walls. Mesh systems address this by distributing multiple access points throughout a home, with each node communicating with the others over a dedicated backhaul link — ideally wired ethernet where available, or the 6GHz band in a properly designed wireless mesh — so that your devices connect to whichever node is nearest and hand off cleanly as you move. The dead zone in your bedroom is not an ISP problem. It is a physics problem that a mesh system solves at the infrastructure level rather than requiring you to move the router or buy a range extender that halves bandwidth every hop.

The ISP-provided router deserves a specific mention. ISP gateway devices — the modem-router combos that arrive in the brown box when you sign up — are designed to serve the ISP’s support operation rather than your network’s performance. They need to be simple enough that a support agent can walk any customer through any configuration over the phone, compatible with the full range of the ISP’s infrastructure, and cheap enough to replace at scale when they fail. They are not designed to be the best router available for your specific home. They are designed to be adequate enough that you don’t call to complain, and ISPs have a detailed understanding of exactly where “adequate enough not to call” ends and “actually good” begins, and they deliberately build to the first line rather than the second.

Replacing your ISP router costs money once. Continuing to use it costs performance every day indefinitely. The math should be familiar by now.

The Framework: Five Questions That Finally Make This Decision Obvious

Question One: What Is Your Internet Actually Delivering to Your Devices Versus What You’re Paying For?

Before you spend a dollar on a router, run a speed test. Not on your laptop three rooms from the router. Not on your phone on cellular. On a device connected to your router by ethernet cable — directly plugged in — which removes the WiFi variable entirely and shows you what speed is actually arriving at your house from your ISP.

Then run the same test on the device you actually use, in the location you actually use it, over WiFi.

The difference between those two numbers is your router’s contribution to your dissatisfaction with your internet. If the ethernet test returns 950 Mbps on a gigabit plan and your gaming PC in the next room gets 180 Mbps over WiFi: that is a 770 Mbps gap that your ISP had nothing to do with and that a better router will significantly close. If the ethernet test returns 200 Mbps on a gigabit plan: that is an ISP conversation, and no router will fix it, because the problem is upstream of the router entirely.

Most people have never run this test. Most people’s ISP router delivers somewhere between 40% and 70% of their subscribed speed to the devices they actually use, in the rooms they actually use them, over WiFi. Most people blame their ISP for 100% of their internet frustration and replace their ISP router with another ISP router when they switch providers and experience the same performance with different branding.

Run the test first. Know which problem you actually have before buying the solution.

Question Two: How Many Devices Are on Your Network, and Have You Actually Counted Them?

Count them. Open your router’s admin panel — if you know how, which you may not, because the ISP router’s admin interface was designed to discourage engagement — and count the connected devices. Or just enumerate them out loud: phones, laptops, tablets, smart TVs, game consoles, streaming sticks, smart speakers, robot vacuums, doorbells, cameras, thermostats, light bulbs, switches, plugs, washing machines, refrigerators, air purifiers, printers.

The average connected home in 2026 has between 15 and 30 internet-connected devices. The average ISP router was designed and deployed when that number was 5 to 8. Every additional device on a router’s network adds to its arbitration workload — not linearly, but combinatorially, as the router manages competing connection requests, allocates channels, and handles the constant background chatter of IoT devices checking in, updating, and reporting status. A 2019 router handling 25 devices in 2026 is like a 2019 server handling 2026-scale traffic: technically still running, visibly struggling, and attributing every symptom of its struggle to the user’s perception rather than its own architecture.

This is the specific problem that WiFi 7’s improved multi-link operation and enhanced MU-MIMO (multi-user, multiple input, multiple output) address: the ability to handle more simultaneous device conversations more efficiently, without the scheduling collision that causes the micro-pauses you experience as “my internet being a bit weird” at peak household activity times.

If you have under ten devices: an entry-level WiFi 7 router handles your situation comfortably and the upgrade from WiFi 6 will be meaningful but not transformative.

If you have fifteen or more: this upgrade is not an optimization. It is infrastructure maintenance that is overdue.

Question Three: Where Are the Dead Zones, and Have You Accepted Them as Permanent When They’re Actually a Solvable Problem?

The dead zone in your apartment — the corner of the bedroom where your phone drops to two bars, the home office where video calls freeze, the kitchen where the smart speaker frequently mishears because it’s constantly re-requesting audio over a struggling connection — is not a property of your dwelling. It is a property of one router positioned in one location trying to do a job that requires more coverage than a single point source can provide.

This sounds obvious. It is, in retrospect, obvious. And yet the persistence of dead zones as a normalized condition of home internet is almost universal, because the alternative — buying a mesh system, configuring it, running ethernet between nodes if possible — sounds like effort, and the dead zone is annoying but manageable, and annoying-but-manageable is the state that produces the most deferred decision-making.

The mesh system is not technically complex to set up in 2026. The modern generation of mesh WiFi — Eero, TP-Link Deco, Netgear Orbi — configures through an app in approximately the time it takes to make a coffee. You plug in the nodes, open the app, follow the prompts, and the system handles band steering, backhaul configuration, and device handoff automatically. The era of mesh networking requiring a networking degree to configure is over. What remains is the friction of making the decision, which this article is attempting to reduce to nothing.

Place one node where your ISP modem is. Place additional nodes wherever dead zones currently exist. Everything in the dead zone that was previously unreachable becomes reachable. The bedroom connection that was marginal becomes solid. The video calls stop freezing. The smart speaker stops mishearing you because it has adequate signal rather than a connection maintained by sheer stubbornness.

Question Four: Are You Gaming on WiFi and Pretending This Is Not a Problem?

I ask this with affection for everyone who has spent years playing multiplayer games over WiFi while blaming lag, disconnections, and inexplicable packet loss on anything except the medium they chose to transmit time-sensitive data over.

Ethernet is still the correct answer for a gaming PC that doesn’t move. A cable plugged into your router and your PC delivers a connection without the retransmission overhead of wireless, without the interference susceptibility of a radio signal, without the latency variance that WiFi introduces even on the best equipment in optimal conditions. If your gaming PC is in a fixed location and there is any reasonable path for an ethernet cable to run from your router to that location, run the cable. The performance improvement over even excellent WiFi is measurable in ping consistency, not just average latency — the elimination of occasional latency spikes that WiFi produces even when average performance looks acceptable.

If running ethernet is genuinely not possible — if the physical reality of your space makes a cable path impossible without significant construction — then WiFi 7’s MLO is the first wireless technology that genuinely approaches wired latency consistency rather than approximating it. The 6GHz band, used exclusively by WiFi 7’s backhaul and available as a dedicated gaming band on properly configured routers, carries gaming traffic with latency characteristics that make the “but I’m on WiFi” excuse weaker than it has ever been.

But the cable is still better. If you can run the cable, run the cable. This is the one piece of advice in this entire article that has no nuance attached to it.

Question Five: Do You Actually Need the $699 Router or Are You Being Sold Specifications You’ll Never Saturate?

WiFi 7 routers in 2026 have theoretical maximum throughput specifications measured in multiple gigabits per second. Your ISP plan almost certainly delivers less than one gigabit per second. Your home ethernet switches, if any, are probably gigabit. The gap between “what WiFi 7 can theoretically handle” and “what your actual internet connection delivers” is wide enough to land a plane in.

This matters for buying decisions because the premium WiFi 7 tier — routers advertising 4, 6, or 10 Gbps of theoretical throughput — is priced significantly higher than the entry WiFi 7 tier, and the premium is largely paid for specifications that your internet connection cannot saturate and that your local network traffic is unlikely to approach.

Where the premium tier earns its price: homes with multiple people simultaneously conducting bandwidth-intensive activities — 4K streaming on multiple TVs, a gaming session, a video conference call, large file transfers between local devices — where the router’s actual internal throughput ceiling becomes a real constraint rather than a theoretical one. Homes with more than 30 connected devices, where the higher-grade processor and memory in premium routers meaningfully improves packet arbitration at the scale of a small office.

Where the entry tier is entirely sufficient: the overwhelming majority of homes with a single internet connection under 1 Gbps, a normal household device count, and typical mixed-use internet activity. This is most homes. The entry WiFi 7 tier delivers real, perceptible improvement over WiFi 5 and WiFi 6 equipment for these homes and does not require you to spend $500 to get it.

Buy the router that matches your actual internet plan and device count, not the router that matches your theoretical future needs or the specifications that sound most impressive in a review.

A Note on the Links Below

Some of the links in this section are Amazon affiliate links. If you buy through them, I earn a small commission — at zero additional cost to you. Same price either way. The router behind your TV is probably the only thing in your setup still costing you money while earning you nothing back. Time to fix that.

These products were chosen because the framework above points to them, not because of their affiliate payout rates. I would rather you buy the right router for your house than the most expensive one on this list. Both options exist below; you now have the framework to know which one is yours.

As an Amazon Associate, I earn from qualifying purchases.

The Hardware: Four Routers That Finally Deserve to Handle What You’ve Built

For the Person Who Wants WiFi 7 Without a Networking Degree or a Second Mortgage: TP-Link Deco BE65 (3-Pack)

~$229–$279 on Amazon

The TP-Link Deco BE65 three-pack is the entry point to WiFi 7 mesh networking that makes every competing argument for staying on your current router feel embarrassing by comparison, because it delivers tri-band WiFi 7 with Multi-Link Operation across three nodes covering up to 7,500 square feet for less than the cost of the mechanical keyboard from earlier in this series.

The BE65 uses a 2.4GHz + 5GHz + 6GHz tri-band design, with the 6GHz band functioning as the dedicated backhaul between nodes — meaning the channel your devices use to connect to the mesh and the channel the mesh uses to communicate with itself don’t compete for the same spectrum, which is the specific problem that makes older mesh systems occasionally slower in practice than their single-router alternatives. MLO on BE65-capable devices means your phone, laptop, or gaming system connects across multiple bands simultaneously, aggregating bandwidth and stabilizing latency in the way that every WiFi generation since WiFi 5 has promised and WiFi 7 actually delivers.

Setup is through the Deco app, which deserves genuine praise for doing the thing all router software claims to do and most router software fails to achieve: making the configuration process so simple that completing it before your coffee finishes brewing is a realistic expectation rather than an aspirational one.

The honest constraint: the BE65 supports WiFi 7 speeds but tops out at theoretical maximums that are genuine for WiFi 7 and meaningfully below the premium tier’s ceiling. For a home with a sub-gigabit internet plan and a household device count in the normal range: this ceiling is never encountered. For a home running multi-gigabit internet with numerous simultaneous heavy users: look at the next option.

Who this is for: the person who ran the speed test from Question One, compared the ethernet number to the WiFi number, felt something shift in their understanding of who’s been responsible for their internet performance, and wants to fix it immediately without an extended research process.

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For the Person Who Has Given Up on Configuration and Wants It to Simply Work Forever: Amazon Eero Max 7

~$499–$599 per node on Amazon (bundles available)

The Eero Max 7 is what happens when a company decides that the entire competitive advantage of a networking product should be simplicity, and then executes that decision at a hardware level that makes compromising on it impossible.

The Eero Max 7 supports wired backhaul through two 10Gbps ethernet ports per node — meaning if you run an ethernet cable between nodes, the backhaul between them operates at speeds that no WiFi connection can match, freeing the entire wireless spectrum for device connections rather than splitting it between device traffic and mesh communication. This is the configuration that produces the network performance that IT professionals describe as “good” and that most home users have never experienced because most home mesh systems use wireless backhaul by default.

The automatic nature of Eero’s system management is the actual product: TrueMesh routing that automatically determines the optimal path between nodes, automatic band steering that moves devices between bands without requiring manual configuration, automatic security updates without user intervention, and a thread radio for smart home device integration that makes the Eero Max 7 a hub for Matter-compatible smart home devices as well as a network access point. The integration with Amazon’s ecosystem — Alexa management, auto-provisioning for new Echo devices, whole-home network visibility through the Alexa app — is either compelling or irrelevant depending on whether you’re invested in that ecosystem, but it is the only WiFi 7 mesh system that is specifically designed to get better over time through software rather than requiring hardware replacement on Amazon’s timeline.

The honest trade-off: per-node pricing is premium. A three-node Eero Max 7 setup covering a large home reaches a cost that begins to challenge serious scrutiny. The performance ceiling justifies it for the buyer who wires the backhaul and runs a multi-gigabit internet plan. For a standard gigabit plan without wired backhaul, the TP-Link option delivers a meaningfully similar wireless experience for significantly less.

Who this is for: the person who thought “I want to configure this exactly once and never think about it again” somewhere around the third sentence of this section and hasn’t stopped nodding since.

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For the Gamer Who Has Accepted That the Network Stack Is Part of the Build: ASUS ROG Rapture GT-BE98 Pro

~$499–$599 on Amazon

The ASUS ROG Rapture GT-BE98 Pro is the router for the person who read the keyboard article, the GPU article, and the motherboard article, and understands that enthusiast hardware exists because there is a use case that requires enthusiast engineering — and has now applied that same framework to the router.

It is quad-band WiFi 7: 2.4GHz, 5GHz, 5GHz (second band), and 6GHz, with the second 5GHz band dedicated as a gaming highway that QoS rules can reserve exclusively for your gaming PC’s traffic. The theoretical implication is a router that deprioritizes the Netflix stream in the living room when your gaming session begins, without requiring you to manually toggle settings or explain to the router which device is running a time-sensitive multiplayer session. The practical implication is that the specific latency spikes that happen during peak household network use — the freeze that occurs exactly when someone else starts a video call or a game update triggers in the background — are managed at the routing level rather than tolerated as ambient interference.

The 10G WAN port handles multi-gigabit internet connections from ISPs now offering them. The 2.5G LAN ports deliver that speed to wired devices. The gaming-specific QoS, AI-managed traffic analysis, and ASUS’s router operating system — which has always occupied the niche between “actually configurable for enthusiasts” and “still navigable by someone who isn’t a network engineer” — are here in their most current form, which is the most capable form they have been.

The honest trade-off: this is a single-router product rather than a mesh system. It covers its range exceptionally well for its single-node design, but if your home has dead zones that require multi-point coverage, ASUS’s AiMesh system allows GT-BE98 Pros to be paired with compatible ASUS nodes. That flexibility costs more than the TP-Link mesh system outright.

Who this is for: the person who has a gaming PC on ethernet, a large enough internet plan to benefit from multi-gigabit routing, and enough devices that QoS management is a real need rather than a theoretical one. The enthusiast who considers the router part of the build because, at this point in the series, they understand that it is.

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For the Smart Home Builder Whose Network Has Become a Living Thing That Needs Its Own Infrastructure: Netgear Orbi 970 (WiFi 7)

~$699–$849 on Amazon (2-pack)

The Netgear Orbi 970 is the premium tier of WiFi 7 mesh networking, priced at a level that requires the justification the framework above provides, and delivering at a level that the justification above describes.

It is quad-band WiFi 7 in a mesh configuration: 2.4GHz, 5GHz, 5GHz, and 6GHz across a satellite-and-router design where the dedicated 6GHz and second 5GHz bands function as backhaul, leaving the primary 5GHz and 2.4GHz bands entirely available for device connections. The theoretical result — and Orbi’s independent benchmark performance consistently approaches theory more closely than competing systems — is a mesh network where the backhaul’s bandwidth demand imposes approximately zero penalty on device connection speeds, because the backhaul is operating on spectrum that device connections never need to share.

The 10Gbps ethernet WAN port and 10Gbps ethernet LAN ports make this the router for the person whose ISP has deployed or is deploying multi-gigabit connections, whose local network involves NAS drives, switches, or devices that benefit from 10G speeds between them, and whose device count is large enough that the premium capacity ceiling is genuinely approached under normal operating conditions rather than only under test scenarios.

The honest trade-off: at this price, the Orbi 970 is a financial commitment that only makes sense for the intersection of a very fast internet plan, a large home with coverage needs a single router cannot address, a substantial smart home device ecosystem, and a buyer who has read the entirety of this article’s framework and arrived at the conclusion that their specific situation checks every box. Most buyers in 2026 do not need a $700+ two-pack mesh system and would be better served by the TP-Link BE65 at a third of the price. But the buyer who does need this tier needs to know it exists, and the framework provides the diagnostic for determining whether that’s them.

Who this is for: the builder whose house is the network. The person who has assembled a smart home ecosystem that rivals a small office’s device count, whose internet plan would embarrass a 2015 data center, and who would like the infrastructure that finally matches the ambition.

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The Part Nobody Said Until This Article

Here is the sentence this entire series has been implicitly avoiding:

Everything this series has recommended is online.

Your games are downloaded from the internet. Your game patches arrive over the internet. Your Discord call, your Twitch stream, your cloud save, your software license authentication, your operating system update — all of it passes through the router behind your TV before it reaches the PC in front of your monitor. The 4K OLED display shows you frames rendered by the GPU recommended three articles ago. Those frames depict a multiplayer game whose server communication — every player position update, every hit registration, every movement packet — travels through the router that came free in a box with your internet signup and has been sitting there unchanged ever since.

The GPU renders at 165 frames per second. The router decides whether those frames depict a world where your inputs arrived at the server in 12 milliseconds or a world where they arrived in 87 milliseconds and then arrived again because the first packet got dropped. This is not a theoretical concern. It is the practical experience of millions of people playing online games on hardware that outperforms their network by multiple orders of magnitude and then wondering why the gameplay feels inconsistent in ways their framerate can’t explain.

The router is the component that has been outside the build conversation for the entire history of gaming PC hardware, because it doesn’t go inside the case and it doesn’t appear in benchmark suites and it doesn’t have a model number that means anything in a build log. It is, nonetheless, load-bearing infrastructure for every activity your build connects to the world to perform.

The framework, compressed:

Run the ethernet speed test versus WiFi in your room. The gap is your router’s tax on your internet plan. If the gap is more than 30%: this upgrade is overdue.

You want WiFi 7 at the price point that makes the decision simple: TP-Link Deco BE65 three-pack. Mesh, MLO, tri-band, three nodes, done.

You want it to work without ever thinking about it again and you’re comfortable with the per-unit pricing: Eero Max 7. Wire the backhaul if you can. Never touch it again.

You’re a gamer, your PC is on ethernet, and you want the router to be part of the build in the same way every other component is: ASUS ROG Rapture GT-BE98 Pro. QoS for gaming traffic. Enthusiast configuration depth without network engineering prerequisites.

Your house is a smart home, your internet plan is multi-gigabit, and you want the infrastructure that matches the ambition: Netgear Orbi 970. The premium tier. The one for the person whose network has become its own project.

Alex is still downloading at 38 megabits per second. His router’s lights are blinking, placidly, behind the TV. They have been blinking that way since 2019. They will continue to blink that way until someone reads this article to him, or until the router fails completely and he calls his ISP and accepts whatever arrives in the next brown box.

Don’t be Alex. The router is part of the build. It always has been. It just took ten articles to say it.

If you just looked at the router behind your TV with the specific suspicion this article intended to create — that’s the framework working on the component you’d been letting off the hook. This is the last article in the series I didn’t know was in the series. Follow for whatever framework lands next.