The short answer
As a California commercial planning range as of 2026, a commercial Wi-Fi access point runs roughly $700 to $2,400 installed for an interior unit in an accessible ceiling and about $1,800 to $4,500 for an outdoor unit, covering the access point, mount, the Cat6A drop, the switch port share and configuration. Add predictive design, an on site survey, validation and cloud licensing of about $50 to $300 per access point per year, and a whole building lands closer to $1,700 to $4,000 per access point all in. The access point count comes from a survey, not from square footage: plaster and wire lath, concrete, foil faced insulation and a per unit coverage target in multifamily can double the count a floor area estimate would suggest.
| Interior AP range | About $700 to $2,400 installed, California 2026 |
|---|---|
| Outdoor AP range | About $1,800 to $4,500 installed |
| Cloud licensing | About $50 to $300 per AP per year |
| All in per AP | About $1,700 to $4,000 with survey and switching |
| AP count source | Survey and construction type, never square footage |
| License | CSLB #472017, C-7 Low Voltage Systems |
Per access point planning ranges for California in 2026#
Wireless is priced by the access point, then adjusted by the building and the design work around it. The figures below are California commercial planning ranges as of 2026. They are for budgeting, not for quoting.
Each range covers the access point, the mount or bracket, the Cat6A drop from the access point to the nearest IDF with termination, labeling and certification test, the switch port share, and the per access point share of configuration. They exclude predictive design, the on site survey, the validation survey, controller or cloud licensing, switch chassis beyond the port share, electrical work and any pathway built by another trade.
| Position | Planning range per access point, installed |
|---|---|
| Interior, Wi-Fi 6, grid ceiling, unoccupied | About $700 to $1,300 |
| Interior, Wi-Fi 6, grid ceiling, occupied with some night work | About $900 to $1,700 |
| Interior, Wi-Fi 6E or Wi-Fi 7, grid ceiling, unoccupied | About $1,000 to $1,900 |
| Interior, Wi-Fi 6E or Wi-Fi 7, grid ceiling, occupied | About $1,200 to $2,400 |
| Interior, hard lid ceiling, box and pathway set or cable fished, occupied | About $1,600 to $3,200 |
| In unit or wall plate access point, occupied multifamily or senior housing | About $800 to $1,800 |
| Outdoor, courtyard, entry canopy or parking, surge protected | About $1,800 to $4,500 |
A single access point added to an existing network lands above these bands. A campus rollout of two hundred identical interior positions lands toward the low end of each row.
What is inside a per access point price#
| Component | What it covers | Planning range per AP |
|---|---|---|
| Access point, Wi-Fi 6 | Indoor dual band unit, 802.3at powered | $250 to $700 |
| Access point, Wi-Fi 6E or Wi-Fi 7 | Tri band unit, often 802.3bt with a multigigabit uplink | $600 to $1,600 |
| Access point, outdoor | Weather rated enclosure, antennas, surge protection | $700 to $2,000 |
| Mount, bracket, tile bridge, box or pole arm | Listed hardware for the ceiling or the surface | $30 to $250 |
| Cat6A drop | Terminated, labeled and certification tested | $200 to $600 |
| PoE switch port share | Port and switch PoE budget at 802.3at or 802.3bt | $100 to $350 |
| Per AP configuration share | Naming, placement record, radio and channel settings | $100 to $300 |
The drop line uses the Cat6A ranges published in the structured cabling cost guide. Cat6A is the standard specification for access point drops even in buildings where the workstations are on Cat6, because it carries multigigabit Ethernet to the full 100 meters and it will still be in the ceiling three access point generations from now. The Cat6 versus Cat6A guide covers when that premium is worth paying.
The AP count comes from a survey, not square footage#
There is no valid access point count per square foot. Two buildings with the same floor plate can need very different counts, and the difference is construction and coverage target.
Construction type. Drywall on steel studs passes signal reasonably well. Plaster over wire lath, common in older towers, behaves like a partial shield. Concrete, CMU and tilt up panels attenuate heavily. Foil faced insulation in a warehouse roof or an exterior wall reflects. Elevator shafts, stairwells, fire rated corridors and metal shelving all create shadows a plan set does not show.
Ceiling type. A grid ceiling gives placement freedom and cheap drops. A hard lid ceiling forces boxes and pathways during rough in, and a change of placement after the drywall is closed is expensive. Exposed structure means the mount and the cable will be seen, so the design has to look intentional.
Coverage target versus capacity target. A coverage design places access points so signal reaches everywhere. A capacity design places them so a room full of clients gets throughput. A lecture hall, an all hands room or a conference center needs smaller cells at lower transmit power and more access points per room than coverage alone would put there.
Per unit coverage in multifamily and senior housing. When the unit is the coverage target, the count is driven by unit count and wall construction, not by corridor length. Depending on the building that means an access point in each unit, a corridor access point serving units on both sides, or a wall plate access point that also provides wired ports. Corridor only coverage is cheaper and does not deliver a usable signal through plaster or concrete demising walls. Both Little Tokyo Towers and Horton House were occupied buildings that received property wide Wi-Fi.
Outdoor coverage. Courtyards, pool decks, parking areas and quads need weather rated units, outdoor rated cable, surge protection at the building entrance and often a pole or canopy mount. Outdoor positions are the most expensive per access point in most projects.
Design work is priced as its own line, and it is a small share of the project.
| Design and validation item | Planning range |
|---|---|
| Predictive design and channel plan, single building | About $2,000 to $5,000 |
| On site survey with a test access point before design freeze | About $2,500 to $7,000 |
| Post installation validation survey and report | About $1,500 to $5,000 |
| Campus or multi building design, per additional building | About $1,000 to $3,500 |
Licensing, lifecycle and where under investing costs more#
| Item | Planning range or service life | Notes |
|---|---|---|
| Cloud or controller license, per AP per year | About $50 to $300 | Multi year terms lower the annual figure; some vendors bundle years into the hardware |
| Support and firmware entitlement | Usually inside the license | Confirm what a lapsed license disables before standardizing |
| Access point service life | About 5 to 8 years | Replaced when the radio generation, not the hardware, becomes the limit |
| PoE switch service life | About 7 to 10 years | Replaced for PoE budget and multigigabit ports more often than for failure |
| Cat6A cabling and pathway service life | About 15 to 25 years | Outlasts two or three access point generations |
That table contains the whole argument for spending on infrastructure. The access point is the part of the system with the shortest life and the easiest replacement. The cable in the ceiling and the switch in the IDF are the parts that are expensive to change, and they are the parts that decide whether the next generation of access points can be dropped in or requires a second pull. Specifying Cat6A drops and a switch with 802.3bt headroom and multigigabit ports costs more on day one and removes the largest cost in the next refresh.
Switch cost differs by role. A switch feeding cameras and phones at gigabit with 802.3at typically runs about $1,500 to $4,500 installed. A switch feeding Wi-Fi 6E or Wi-Fi 7 access points, with multigigabit access ports and an 802.3bt budget, typically runs about $3,000 to $8,000 installed. Counting the PoE budget per switch rather than per port is what keeps access points from dropping radios at peak load.
A worked example: 39 access points in a three floor office#
Assumptions: single tenant office, three floors totaling about 54,000 sq. ft., occupied during the work with some after hours shifts, 2 by 4 grid ceiling on most floors with hard lid at the lobby and the executive suite, one IDF per floor with an existing tested backbone and spare rack space, Wi-Fi 6E specified, coverage plus capacity design. The survey returns 30 interior access points in grid ceiling, 6 in hard lid areas and 3 outdoor units at the courtyard and entry canopy, for 39 total. Private owner, no prevailing wage.
| Line item | Quantity | Planning range | Extended planning range |
|---|---|---|---|
| Predictive design and channel plan | 1 building | $2,000 to $5,000 | $2,000 to $5,000 |
| On site survey with a test access point | 1 building | $2,500 to $7,000 | $2,500 to $7,000 |
| Interior Wi-Fi 6E access points, grid ceiling, occupied | 30 | $1,200 to $2,400 | $36,000 to $72,000 |
| Interior Wi-Fi 6E access points, hard lid lobby and suite | 6 | $1,600 to $3,200 | $9,600 to $19,200 |
| Outdoor access points, courtyard and entry canopy | 3 | $1,800 to $4,500 | $5,400 to $13,500 |
| PoE switches, 802.3bt budget with multigigabit access ports | 3 | $3,000 to $8,000 | $9,000 to $24,000 |
| Validation survey, closeout package and credential turnover | 1 | $1,500 to $5,000 | $1,500 to $5,000 |
| Cloud licensing, year one | 39 | $50 to $300 | $1,950 to $11,700 |
| Planning total, year one, low voltage scope | About $68,000 to $157,400 |
That is roughly $1,700 to $4,000 per access point all in. The assumptions are where the number actually lives. Make the building unoccupied and the interior lines drop toward the lower rows. Put the job on a public agency floor and, on a planning assumption that labor is about 60 percent of an installed access point, a 40 percent determination moves that line about 24 percent, with no change to the hardware or licensing lines. Specify Wi-Fi 6 instead of 6E and the access point and switch lines both fall, but the next refresh comes sooner. Change the building to occupied multifamily with the unit as the coverage target and the count, not the per unit price, is what drives the total. Our wireless networks page describes what a complete scope includes, and our multifamily and affordable housing page covers how occupied properties are phased.
Next step#
Send floor plans, a description of the wall and ceiling construction, the occupant or unit count, and the applications the network has to carry, through request a bid. What comes back is an access point count from a predictive model, the cabling and switching priced separately from the wireless hardware, the survey and validation as their own lines, and the PoE budget worked out per switch. Telelink Business Services is a licensed C-7 Low Voltage Systems Contractor, CSLB License #472017. General contractors can find our Division 27 bid and coordination process on the for general contractors page.
This article is general information for planning and specification, not a bid, engineering advice or legal advice. Codes and standards change; confirm the current edition with the authority having jurisdiction. Scope and price for a specific building come only in a written proposal.