Inquiries on installing Ethernet in your home. Guidance required!
Inquiries on installing Ethernet in your home. Guidance required!
I’m aiming to secure several Ethernet cables in my basement to ensure a stable connection to every bedroom, so I can fully utilize my G.Fiber service instead of relying on slower Wi-Fi. I intend to run a solid copper Cat6a cable from the fiber box into my home and position it centrally where I’ll install a 2.5 Gigabit Ethernet switch. My current setup includes one gigabit upload/download for Google, and I’m planning to switch to their 2 gig plan once this is complete.
I’ve gathered some mixed advice about whether the components in my proposed installation will perform as expected. While I have a few devices that need direct connections, I’m unsure if the switches I see fit my requirements. I was hoping you could confirm if everything works well or suggest alternatives if needed.
Here’s what I have so far:
[Amazon product link] – part of my existing G.Fiber installation.
Goals:
- Three bedrooms and the living room each get two solid copper Ethernet lines.
- One line in the basement will be a bit loose for a portable station.
- The Nest Wi-Fi and Google Wi-Fi points still function for wireless use.
- I prefer an unmanaged switch for simplicity.
Concerns:
- Basic calculations suggest I may lack enough ports on the switch in my list.
- No 2.5 Gigabit switches with more ports are readily available; the closest options are 10-port switches with a mix of 8x1Gig and 2x10Gig, which isn’t ideal.
- My plan includes future-proofing by having two lines per room.
- I currently have only seven devices needing direct access.
- There’s confusion about whether shielded Cat6a is necessary—industry experts recommend it for reliability.
- The product page mentions the RJ45 boxes can handle Cat6a, but performance will be limited to Gigabit Ethernet.
Questions:
- Are the listed RJ45 surface mount boxes suitable for Cat6a?
- Should I stick with Cat6a or consider Cat7 for better capacity?
- Is it worth spending extra on a switch that supports 2.5Gbps now, just in case technology advances?
Thanks for your help—I’m still trying to sort this out and would appreciate any guidance or alternatives.
Do you intend to connect more than eight PCs? Are there multiple TVs or IoT devices involved? If yes, then having over eight ports of 2.5 might not be necessary. TVs and IoT gadgets usually require no more than 100 ports, let alone gigabit or 2.5G connections. Are your activities expected to last longer than about 50 meters? In a typical home setting, this is unlikely. Cat 6 should suffice for up to ten gigabits in most houses. If you’re close to power lines, shielded cable might be useful, but it won’t make much difference. That crimper and the end connections you mentioned can often cause frustration. I purchased one hoping it would simplify things, but it ended up being ineffective, forcing me back to my usual method. Some users have no issues, yet I kept receiving faulty cables.
Apologies for the slow response. I neglected to review the weekend. To address your questions: Are you connecting more than eight PCs? Yes, I intend to link four PCs, two Series X, and one PS5 for optimal download speeds. Do your runs exceed 50 meters? Likely, at least one will surpass that length. This is why I was thinking of Cat 6a as a backup option. Are your runs close to power lines? I’ll do my best to keep them away from or across any lines. Would the advantages of shielded cables justify the higher cost given this concern? The crimper and pass-through ends you mentioned can often cause issues. Could you describe your proposed configuration? Lastly, could you clarify what you mean by this link? (https://www.amazon.com/dp/B00IO3HC6A/?co..._lig_dp_it) From what I understand, these appear to be standard RJ45 connectors that should handle 2.5 Gbps (potentially up to 10 Gbps later). The manufacturer clarified in a Q&A: “Can I use these for Cat6A so I can run 10GbE?” That response suggests compatibility with higher speeds, but performance may be limited to Cat6.
For benchmark purposes, I often test with 10 Gbps Ethernet and HDBaseT over CAT6 (even CAT6a) across distances of up to about 100 feet. This setup works well with similar quality connectors. CAT6a can be tricky to manage; it might need repositioning if needed—just stick with CAT6. The shielding offers limited benefit when crossing power lines, as twisted pair Ethernet relies on differential shielding for higher speeds beyond 10 Gbps in typical home settings.
2.5 Gbps can reach up to 100 meters on CAT5e, while CAT6 supports 5 Gbps over similar distances. When using solid-core cables, the optimal choice for maintaining signal quality inside walls is a jack or patch panel termination—not the plug side. Certified patch cables are affordable; opt for them even for WAPs.
For a cleaner look at the home side, consider a low-voltage ring, drill holes, and install neatly terminated jacks instead of sleek surface-mount boxes—this usually saves money. I prefer Leviton products because they match my hardware colors and use compatible wall plates, though any reputable brand works.
Regarding layout, unless you’re running multiple cables to devices like TVs and need a central hub, plan for a single line per location. Installing a switch at remote spots (e.g., TVs) is ideal, but if you must run one line, it’s easier.
My office has 10 jacks, most in use—secure them if they stay put. Smart TVs, Roku, printers, and similar devices should connect without hassle. The more you move away from Wi-Fi, the better your wireless performance for mobile gear (phones, laptops, etc.).
I can suggest several switches supporting 10/5/2.5 Gbps with ample ports; realistically, just 5 ports at 2.5 Gbps should suffice—one per PC, one for router uplink, and that’s manageable with a Netgear MS510TX.
One key point: access points are essential once you’ve got wired connections. You’ll likely need them for all mobile devices. A mesh network using wired links or dedicated APs can work, but costs will rise quickly.
The bottom line: wiring is affordable, plan to run more than you think necessary, but expect significant investment in networking gear to handle it. The good news is, once installed, your setup can last years—WiFi 5 is still in use, and upgrading to WiFi 6 or 7 won’t be urgent unless devices demand it. As long as your switches receive security updates, they can remain functional for a decade or more.
I found the second paragraph quite confusing. It seemed to mix up some details about my setup and what I was actually planning. Specifically, it made it unclear whether I was thinking about shielded or unshielded cabling, and it didn’t fully explain why I wanted Cat 6 over Cat 6a. I also meant to run unshielded cables, but the wording suggested otherwise. That changed how I interpreted your advice. Regarding the layout, you mentioned a long cable run from the modem to the basement, then ceiling-mounted switches in the joists, and multiple runs to each room. I realized that instead of running many separate wires, I could simplify by doing one run per room and using switches in rooms with several devices. For wireless, I already have three Nest and two Google Wi-Fi spots, so my network should be sufficient for now. I don’t need any hardwired connections throughout the house. I’m open to keeping things in this forum discussion, but if you’re up for it, I’d really appreciate a more detailed chat with someone who has more experience. If not, that’s perfectly fine too. My goal is just to get a clearer plan and possibly speed things up.
Cat6a tends to be significantly stiffer and thicker, which can complicate routing and handling.
It’s even more challenging than expected. If you attempt a test with a reliable tool, a run performed by someone lacking experience will likely underperform the CAT6A standard by over 90%. CAT6A includes shielding and also relies on individual wire protection, requiring strict adherence to specifications throughout its life to maintain quality. Generally, Category cabling is available in two types internally: solid and stranded. Solid cables consist of straight copper wires, while stranded cables have multiple tiny strands twisted together. Solid cables provide stronger signal stability and are less prone to damage from bending, though they’re more susceptible to breakage over time if repeatedly stressed. Stranded cables can be rolled up for extended storage but tend to lose signal quality over longer distances. For installations inside walls where movement is minimal and runs are long, solid cable is preferable. Outside walls, stranded offers better performance. When switching between in-wall solid cables and exterior stranded (patch) cables, use jacks and patch panels at each end. These tools are built to help secure solid cables properly and preserve signal strength. The patch panel is placed centrally near a network switch, while the jack is mounted in the room with equipment, fastened to a wall plate secured by a low-voltage ring (created by drilling a hole in drywall). Patch panels: https://www.leviton.com/en/products/69586-u89 Wall jacks: https://www.leviton.com/en/products/comm...reme-utp-6 Wall plates: https://www.leviton.com/en/networking/wa...wallplates Low voltage ring: https://www.homedepot.com/p/Carlon-1-Gan.../100160916 Remember, “Quickport” refers to Leviton’s trademark for a jack and wall plate called “Keystone,” which is commonly found on Amazon or local stores not stocking Leviton products. To link the in-wall wiring to equipment, connect patch cables into the panel at the switch location and into the device at the other end—now you understand the purpose of patch cables! You can purchase them affordably in bulk from various retailers, offering many colors and lengths for organization.
Great questions! It seems there’s some confusion about shielding requirements. You’re considering unshielded Cat 6a, which is indeed more straightforward than shielded models. Regarding your setup, it would be better to have a patch panel and cable at each room’s wall keystone rather than relying solely on the switch. This ensures flexibility and easier troubleshooting.
I'm very doubtful about that cable... it claims Cat6 upgrade but actually operates at 750 MHz (the norm is 500 MHz). It's delivered on a wooden spool rather than an ez-flow carton, and it lacks residential in-wall fire rating certification—major concern. Plus, the price matches Belden 2412 CAT6 USA, which only adds to my skepticism. During installation, add a jack to a wall plate at each room’s end, and set up a patch panel at the main hub.