
Picture this: your new Wi-Fi 7 access points are on the ceiling, the lights are blinking, and the first speed test looks suspiciously like your old Wi-Fi 6 network. If that sounds familiar, the access point is rarely the problem.
Here is the short answer. To get real performance from Wi-Fi 7, most offices need three things: switch ports that supply 802.3bt (PoE++) power, a multi-gigabit path of 2.5G, 5G or 10G to every access point, and cabling that can carry it, which means certified Cat6 at the very least and Cat6A for anything new.
At DIGICO, we have been building low-voltage infrastructure for Los Angeles offices, medical suites, retail spaces and multi-tenant buildings since 2008, and one thing holds true on almost every job: the wireless gear is the easy part. What decides the result is what sits behind it, the cable in your walls and the switch in your closet. Before you schedule a Wi-Fi 7 installation in Los Angeles, this guide walks you through what to check, in the order we check it.
Key Takeaways:
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Wi-Fi 7 (802.11be) is built as much for steadier, lower-latency connections as for raw speed, and its new features push far more traffic through each access point's single cable.
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Power needs depend on the model: some dual-band access points run on 802.3at (30 W), while higher-end multi-radio units are designed for 802.3bt (up to 90 W).
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2.5G and 5G can run over existing Cat5e or Cat6 under IEEE 802.3bz, but Cat6A is the safe choice for new runs, 10G uplinks and PoE++.
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Every Ethernet channel tops out at 100 meters, and a link only counts once it tests clean.
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Your switch's total PoE budget matters more than its port count.
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If your Wi-Fi 6 network was installed in the last few years and works well, you probably do not need to rip it out.
Wi-Fi 7 Is Less About Speed Than You Think, and That Changes Your Wiring
Wi-Fi 7 is the commercial name for IEEE 802.11be, and the Wi-Fi Alliance began certifying devices in January 2024. The headline speeds get the attention, but IEEE Spectrum's feature on the standard makes a sharper point: this generation is aimed as much at reliability and low latency as at raw throughput. For an office full of video calls, cloud apps and VoIP, that matters more than a bigger number on a spec sheet.
Three features do most of the work.
Multi-Link Operation (MLO). A Wi-Fi 7 client can use several bands at once, for example 5 GHz and 6 GHz. It can split traffic across them for speed, or send copies across different channels so one noisy channel does not stall a call. The Wi-Fi Alliance announcement of Wi-Fi CERTIFIED 7 is the primary source on how the certification defines it, and Cisco's engineers explain how MLO behaves from packets to performance.
320 MHz channels, plus puncturing. Channel width doubles from 160 MHz to 320 MHz, but only in the 6 GHz band, which in the U.S. spans 5.925 to 7.125 GHz. When interference blocks part of a wide channel, a feature called preamble puncturing lets the access point notch that slice out instead of falling back to a much narrower channel.
4K-QAM. This modulation moves about 20% more data per transmission than Wi-Fi 6's 1024-QAM, provided the client is close enough to the access point to use it.
One honest caveat: these gains need support on both ends. Wi-Fi 7 is backward compatible, so older laptops and phones still connect, but they will not see the full benefit until they are replaced.
Now the part that affects your walls. All these improvements still depend on a reliable wired connection back to the network closet. A Wi-Fi 6 access point could live comfortably on a gigabit link. A busy Wi-Fi 7 access point can outgrow it, and it draws more power too.
That is why a business wireless network upgrade is really a wired-infrastructure upgrade first. If you want help thinking through coverage and access point placement along the way, our Wi-Fi design and installation team starts every project with a walkthrough of your floor plan.
Wireless Access Point Power Requirements: The Quiet Way Wi-Fi 7 Upgrades Go Wrong
An underpowered port rarely fails loudly. The access point boots, a radio quietly switches off or throttles, and the network simply feels ordinary. That is why wireless access point power requirements belong at the top of your upgrade checklist.
PoE standards at a glance
Power over Ethernet has grown through four generations. The table shows what the switch port can supply (PSE) and what is left for the access point after cable losses (PD).
|
Type |
Standard |
Max at the port |
Max at the device |
Pairs used |
|
Type 1 |
802.3af |
15.4 W |
12.95 W |
2 |
|
Type 2 |
802.3at (PoE+) |
30 W |
25.5 W |
2 |
|
Type 3 |
802.3bt |
60 W |
51 W |
4 |
|
Type 4 |
802.3bt (PoE++) |
90 W |
71.3 W |
4 |
The 71.3 W figure reflects the IEEE Class 8 value. Some vendors, including Cisco and Fluke Networks, round or present the available device power differently.
The IEEE 802.3bt standard was ratified in 2018 and powers devices over all four twisted pairs, as Fluke Networks explains in its overview of Type 3 and Type 4 PoE. Cisco's white paper on UPOE and 802.3bt lays out the class structure in more detail.
Why Wi-Fi 7 access points draw more power
Compared with Wi-Fi 5, a Wi-Fi 7 access point carries more radio chains across more bands, plus extras like sensors and IoT radios. IT training provider Training Camp notes that Wi-Fi 7 access points often need 802.3bt, and that switches unable to supply it must be upgraded before deployment.
In practice it depends on the model:
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Dual-band and entry-level units frequently run on 802.3at. TP-Link's EAP723, for instance, lists a maximum draw of 17.8 W on PoE+ with a 2.5G port.
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Higher-end, multi-radio units are designed around 802.3bt. Some wall-plate models also need bt input if they pass power on to a phone or another device.
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An 802.3af port is rarely enough for any Wi-Fi 7 access point.
The only reliable answer is the spec sheet of the exact model you plan to buy, so we check it before we size a switch.
The rule we use: buy bt-capable ports even if you don't need them yet
Access points typically stay in service for five to seven years, and the switching hardware often remains in service even longer. IEEE 802.3bt is backward compatible with IEEE 802.3af and 802.3at powered devices, so a properly implemented bt-capable port can support compatible PoE devices from earlier generations. Always check the switch specifications and the access point's power requirements. Four-pair power also pushes more current through the cable, which makes cable quality and bundle size matter more than they did at 15 W. That is one reason we pair bt switches with good cabling, which we cover next.
Don't forget the switch power budget
A switch has a total wattage it can distribute across all ports, and that number is usually lower than ports multiplied by 30 or 60 W. Depending on how the switch allocates power, twenty-four access points reserved at 30 W each can claim 720 W of budget before a single phone or camera is added. We cover the same trap in our guide to PoE switch budgets for IP cameras, and it applies to Wi-Fi in exactly the same way.
Structured Cabling in Los Angeles: What Wi-Fi 7 Needs in Your Walls
Good structured cabling in Los Angeles starts with an honest look at what is already in the building. Many offices here were wired for gigabit, and a lot of that cable is better than people assume, as long as it is tested and the rest of the chain keeps up.
Multi-gig is the real requirement
The IEEE 802.3bz standard, published in 2016, defines 2.5GBASE-T and 5GBASE-T so that faster speeds can run over cabling many buildings already have. Leviton's technical brief on what is driving Cat 6A adoption covers 802.3bz and the TIA TSB-162-A guidelines for cabling wireless access points. As a rule of thumb, 2.5G is designed for Cat5e and 5G for Cat6, and both depend on clean terminations and sensible bundling. For Wi-Fi 7 access points with 2.5G or 5G uplinks, a well-installed Cat6 link is a solid match, and CommScope's infographic for its specific GigaSPEED XL5 Cat 6 product describes support for multi-gigabit applications up to 100 meters under the stated design conditions. This should not be interpreted as a guarantee that every standard Cat 6 installation will support 5GBASE-T over the full 100 meters.
Cat5e, Cat6 or Cat6A?
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Your situation |
What we usually recommend |
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Existing Cat5e or Cat6 in good condition, 2.5G uplink planned |
Certify the links first. You may be able to keep them. |
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New construction, tenant improvement or major remodel |
Cat6A for every access point drop |
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Planned 10G uplinks or 802.3bt (60-90 W) PoE |
Cat6A, which handles heat and crosstalk better in bundles |
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Long runs near the 100 m limit, or links between floors and buildings |
Cat6A, or fiber for the backbone |
Cat6A is rated to 500 MHz and carries 10 Gbps for the full 100 meters, while standard Cat6 reaches 10G over shorter distances only.
The objection we hear most is that Cat6A is overkill. Look at it from the other side of the ceiling tile: once walls are patched and painted, pulling cable a second time costs far more than the price difference between Cat6 and Cat6A today. If your walls are open, that is the moment to build for the next decade. For a realistic budget range, see our breakdown of network cabling costs in Los Angeles.
One cable or two per access point?
The NBASE-T Alliance white paper on best practice cabling for wireless access points, published in February 2019 and written by engineers from CommScope, Fluke Networks, Panduit and CME Consulting, recommends a minimum of two Category 6A links per access point. For additional guidance on wireless access point cabling, see the TIA TSB-162-B guidelines for wireless access points. Leviton also discusses these recommendations in its enterprise wireless cabling guidance. The guidance recommends at least two Cat 6A cable runs per access point to support future expansion and higher data and power requirements. These are design recommendations, not universal requirements, and the right choice depends on your budget and deployment density. The second cable gives you room for link aggregation, a second device or a future replacement. These are design recommendations, not universal requirements, and the right choice depends on your budget and deployment density.
Certify, don't just connect
A cable that passes a basic continuity check can still fail at multi-gig speeds. Each installed link should be certified with a proper cable tester, labeled at both ends, and handed over with as-built documentation your IT team can actually use. That is standard on every data wiring and installation job we do.
Switches, Closets and Uplinks: The Part Most Wi-Fi 7 Projects Overlook
You can install perfect cable and still end up with a gigabit bottleneck if the switch at the other end cannot keep up. Your network is only as fast as its slowest link, and in many offices that link sits in the closet.
Multi-gig PoE++ switches
Look for access switches with 2.5G, 5G or 10G ports and 802.3bt support, and check the total PoE budget against the real draw of your access points. Gigabit-only hardware will limit the throughput of any connected Wi-Fi 7 unit, whatever the cable can carry.
Backbone and fiber
When dozens of access points aggregate into one closet, the uplink from each access switch matters as much as the access point drops. Between floors or buildings, fiber is often the better answer. Our comparison of fiber optic vs. Ethernet for business cabling explains when to switch media, and our fiber-optic cabling and installation service covers backbones, splicing and certification.
Don't overbuy
Wi-Fi 7 is not an emergency for everyone. If you deployed Wi-Fi 6 within the last three years and it meets your needs, there is rarely a strong case to replace it right now. Training Camp makes the same point and notes that access point refresh cycles typically run five to seven years, so the real question is what your applications will demand in year three or four.
If your cabling and switches are already multi-gig and PoE-ready, the upgrade can be as simple as swapping access points. If not, plan the wiring work first and treat the access points as the last step.
Enterprise Wireless Network Installation: Design, Survey and 6 GHz Rules in the U.S.
An enterprise wireless network installation succeeds or fails on design, not on the model number printed on the box. Two things shape that design in Los Angeles: the buildings and the rules.
Survey before you buy
We start with your floor plan, device count and growth plans, then confirm with an on-site survey. Concrete cores, glass partitions, elevator shafts, older plaster walls and dense tenant layouts all change how far a signal travels, and Los Angeles has plenty of each. The 6 GHz band that gives Wi-Fi 7 its widest channels also tends to lose more strength through walls than 5 GHz, so Wi-Fi 7 does not automatically mean fewer access points. The survey establishes placement and the number of network connections required, before anyone pulls a single cable.
6 GHz in the U.S.: Low Power Indoor vs. Standard Power
For access points, the main operating modes in the 6 GHz band are Low Power Indoor (LPI) and Standard Power. Very Low Power (VLP) is another permitted device category for certain portable and wearable devices. Low Power Indoor (LPI) access points can use the full band indoors without any coordination, which fits most offices. Standard Power access points transmit at much higher levels and must check in with an Automated Frequency Coordination (AFC) system, which is how they protect existing licensed users of the band. Cisco Meraki's documentation on Automatic Frequency Coordination describes the requirements: Standard Power in the U.S. covers the U-NII-5 and U-NII-7 sub-bands, needs geolocation, and has to refresh its AFC data every 24 hours. Qualcomm's overview, Taking Wi-Fi to new heights, discusses the higher power limits available to Standard Power devices. The comparison depends on the metric: power spectral density and maximum EIRP are different measures and should not be treated as interchangeable.
For a typical Los Angeles office, LPI is enough. Standard Power becomes interesting for large open floors, high ceilings, atriums and outdoor areas, and it adds planning steps you want to know about early.
The platforms we install
We deploy enterprise Wi-Fi from Ubiquiti, Cisco Meraki, Ruckus and Aruba, and we choose based on your management preferences, budget and IT team rather than a favorite brand. Whichever platform you pick, the wired design described above stays the same.
Six Mistakes That Sink Wi-Fi 7 Upgrades
These are the patterns we watch for on every upgrade. Each one is easy to avoid when you know it exists.
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Buying access points first. The wiring and switch decisions should come first, because they decide which access points make sense.
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Trusting the port count. A 48-port PoE switch with a small power budget cannot power 48 hungry access points.
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Assuming the old cable is fine, or assuming it is bad. Both guesses cost money. Certification testing replaces guessing with data.
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Ignoring the 100-meter limit. A run that looks short on the floor plan can be much longer once it climbs a wall, crosses a ceiling and drops into the closet.
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Skipping the survey. Placement drives performance, and a quick walkthrough often saves an extra drop or a dead zone.
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Leaving no spare capacity. One extra labeled drop per area costs little now and spares you a ceiling repair later.
Your Wi-Fi 7 Readiness Checklist for a Los Angeles Office
Bring this list to your installer before any Wi-Fi 7 installation in Los Angeles. Every "no" is a line item to plan for.
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Do you know the category and condition of the cable in your walls?
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Are your longest runs comfortably under 100 meters, measured along the actual cable path?
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Do your switches support 802.3bt, and have you checked the total PoE budget?
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Do the switch ports run at 2.5G, 5G or 10G?
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Is there room, power and cooling in the closet for new switches?
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Do enough of your laptops, phones and tablets support Wi-Fi 7 to justify the upgrade today?
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Do you need fiber between floors or buildings?
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Do you have an up-to-date floor plan and as-built cabling records?
If you cannot tick most of these boxes yet, that is normal. A walkthrough turns the unknowns into a written plan, and ours is free.
How DIGICO Plans a Wi-Fi 7 Upgrade
DIGICO is a California-licensed low voltage contractor (C7 and C10, license #1022276), bonded and insured, serving Greater Los Angeles since 2008. Our own technicians design and install every job. We never subcontract it out, which matters when cable, power and wireless all have to work together. Clients rate us 5.0 across 87 Google reviews, and you can read them on our reviews page.
A Wi-Fi 7 project with us usually follows six steps:
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Free walkthrough. We look at your space, your closet and your existing cabling.
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Survey and design. We map access point locations, drop counts and PoE needs against your floor plan and growth plans.
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Written quote. You get a clear scope, usually within one business day of the walkthrough.
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Installation. We schedule around your working hours, protect finished spaces and clean up daily.
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Testing. Every run is certified, not just plugged in.
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Handover. You receive labeled infrastructure and as-built records for your IT team.
Our structured cabling in Los Angeles covers offices, medical practices, retail, restaurants, warehouses and multi-tenant buildings, from a single suite to a full floor. To see how we work, browse our recent projects, explore our low voltage wiring and cabling services, or read how we approach commercial office networks. We serve neighborhoods across the city, including Downtown LA, Century City, Santa Monica and Culver City.
Ready to Plan Your Wi-Fi 7 Upgrade?
Wi-Fi 7 rewards the offices that prepare the foundation: 802.3bt-capable switch ports, a multi-gig path to every access point, and certified Cat6 or Cat6A behind it. Get those right and the access points almost take care of themselves.
If you want a second pair of eyes on your building, DIGICO's Wi-Fi team will walk your space and put together a written plan. Whether you need new structured cabling in Los Angeles, a switch and PoE review, or a full Wi-Fi 7 installation, get a free quote or call us.
FAQ
What cabling do I need for Wi-Fi 7?
Certified Cat6 is the practical minimum for 2.5G and 5G access point uplinks. For new runs, 10G uplinks and 802.3bt PoE, we recommend Cat6A. Whatever the category, every run should be tested, because a link only counts once it passes certification.
Can Cat5e support Wi-Fi 7 access points?
The access point will connect, but Cat5e is rated for gigabit, so you may leave performance on the table. 2.5G often works on good Cat5e under 802.3bz, and only a certification test can confirm it for your runs.
What PoE do Wi-Fi 7 access points require?
It depends on the model. Some dual-band units run on 802.3at (30 W), while higher-end multi-radio models are designed for 802.3bt (60-90 W). Check the spec sheet of the exact access point before buying a switch.
Is Wi-Fi 7 backward compatible with Wi-Fi 6 devices?
Yes. Older devices connect to a Wi-Fi 7 access point normally. They simply do not gain the Wi-Fi 7 features, such as Multi-Link Operation, until the device itself supports them.
How much does a business wireless network upgrade cost in Los Angeles?
It depends on the number of access points, the condition of your cabling and whether your switches need replacing. Cabling is often the largest variable. Our guide to network cabling costs in Los Angeles gives realistic ranges, and a free walkthrough gives you a firm number.
Is Wi-Fi 7 worth it if I already have Wi-Fi 6 or 6E?
If your current network performs well, there is no rush. Wi-Fi 7 pays off most in dense offices, with latency-sensitive applications, or when you are already rewiring and can build the infrastructure once.
How long does a Wi-Fi 7 installation take?
Most projects finish within a few days after assessment and planning, though larger buildings take longer. We schedule work around your business hours to keep your team productive.