

AIR-AP3802E-FK910C is a controller-based Cisco Aironet 3800 Series 802.11ac Wave 2 access-point order. The PID selects the 3802E access point for external antennas, configurable ten-unit K910C eco-pack and regulatory token F.
The 3802E requires separately selected compatible external antennas; connector fit alone is not an approved RF design. Record antenna PID, connector use, gain, pattern, cable loss, mounting, grounding and country approval.
Cisco identifies K910C as a configurable ten-access-point eco-pack. Preserve the selected regulatory-domain evidence and reconcile ten physical units independently.
The domain token is not a country name. Keep the F-domain approval beside the RF survey and antenna record so a later antenna change triggers a regulatory review.
Make antenna-change control the focus for this F-domain order. Record the approved antenna PID, gain, cable and mounting plan with the country lookup, then require review whenever any RF component changes. The controller configuration and final installation photographs should refer to the same asset. A mechanically compatible replacement antenna is not automatically an approved regulatory substitute.
Validate the exact controller release and CAPWAP join before deployment. Preserve negotiated PoE, multigigabit Ethernet rate, cable certification and error counters; family capability does not prove the installed switch and cable path achieve that rate.
Cisco lists 2022-10-31 as end of sale and 2027-10-31 as last support for the Aironet 3800 Series, with Catalyst 9130AX as the replacement direction. Available inventory does not extend those dates.
Preserve the permanent-link test, patch-lead identities, switch port, negotiated Ethernet rate and error counters. Investigate pair faults, excessive length or rate fallback before wireless acceptance begins. A link light only proves connectivity at some rate; it does not demonstrate the intended uplink performance. Tie the cable result to the AP serial so a later throughput problem can be separated from radio, controller and wired-path causes. Prove the permanent link, patch leads, multigigabit switch port, negotiated rate and error counters.
Attach the approved RF survey location, mounting height, orientation, expected client density, channel width and neighboring-radio assumptions to the order. After installation, compare measured coverage and interference with that design. If ceiling construction, antenna placement or obstructions changed, document the deviation and repeat the affected measurements. This provides a site-specific acceptance reason for the exact unit instead of relying on a family data sheet alone. Tie the post-install RF result to the exact integrated or external antenna architecture.
Assign owners for AP reachability, controller join failures, radio utilization, client health and switch-port errors. Confirm that the exact serial appears in inventory and monitoring, then test the alert path. Record dashboard object, notification route and escalation owner. Telemetry that is not tied to an owned asset does not provide a reliable service baseline and will not support later comparison after channel or software changes. Monitor serial, CAPWAP state, radio health, Ethernet errors, PoE and client experience under one owner.
Define the expected concurrent clients, application mix, airtime utilization and channel-width assumptions for this location. After commissioning, capture radio utilization, retry behavior and representative throughput during a meaningful load period. Compare the observation with the survey design and state any shortfall. A peak link rate from a data sheet is not a site capacity result and should not replace measured operating evidence. Use measured airtime, retries and client performance instead of maximum family PHY rates.
Preserve the pre-install and post-install noise, neighboring-radio and channel-occupancy observations for the selected location. Record any controller-driven channel change during acceptance. If the regulatory profile limits the channel choices, state how that constraint affected reuse and mitigation. This baseline gives future troubleshooting a reference point and prevents an unrelated interference change from being attributed to the hardware order. Preserve the enabled-channel export after initial join and every controller migration.
Build the acceptance record so power, wired link, controller join, radio state, authentication and application reachability can be reviewed independently. Preserve timestamps and device identifiers across switch and controller logs. When a test fails, identify the failing boundary before replacing hardware. This avoids classifying a cable, policy or controller problem as an access-point defect and creates evidence that can be reused during support escalation. Use synchronized switch, AP and controller timestamps to isolate power, CAPWAP, RF and authentication faults.
Store the initial controller events, switch-port state, radio assignment, channel list and client test results with a consistent asset identifier. Define how long commissioning evidence is retained and who can retrieve it. A later firmware, controller or RF change should add a new dated observation rather than overwrite the original. The resulting history supports lifecycle decisions and distinguishes a new regression from the accepted baseline. Keep accepted power, uplink, radio and client results as the baseline for later changes.
The handover package should include exact order identity, destination approval, serial record, controller evidence, switch port, mounting or antenna record, user-path tests and named operational owners. Review the package with the receiving team and list unresolved exceptions. A unit is not operationally accepted when important evidence remains only in installer notes, email attachments or an unowned temporary dashboard. Handover should include PID, all serials, compliance result, controller, antenna record and lifecycle owner.
Official evidence: Cisco Aironet 3800 data sheet; Cisco getting-started guide; Cisco 3800 lifecycle bulletin; Cisco support page; and Cisco compliance lookup.
| Exact model / SKU | AIR-AP3802E-FK910C |
| Exact Cisco PID | AIR-AP3802E-FK910C |
| Product family | Cisco Aironet 3800 Series |
| Wireless design | Controller-based 802.11ac Wave 2 access point |
| Antenna form | 3802E access point for external antennas |
| Order form | configurable ten-unit K910C eco-pack |
| Physical quantity | 10 |
| Regulatory-domain token | F |
| Country approval | Verify through Cisco's current compliance lookup |
| Uplink acceptance | Verify multigigabit switch port, cable certification, negotiated rate and errors |
| Lifecycle | End of sale 2022-10-31; last support 2027-10-31 |
| Migration family | Cisco Catalyst 9130AX Series Access Points |
| Source match | AIR-AP3802E-FK910C: 3802E access point for external antennas, configurable ten-unit K910C eco-pack, domain token F |
| Official manufacturer reference | Cisco Aironet 3800 official data sheet |
Product Quotation | ![]() | Condition and Packaging | |
![]() | Technical Support Enquiry | Returns and Replacement | |
Shipping Arrangements | ![]() | Warranty Terms |
AIR-AP3802E-FK910C Cisco Aironet 3800e Dual-band WiFi 5 AP 10-Pack is a CISCO Aironet 3800 Series Access Points product supplied by YYST Global for enterprise IT procurement and infrastructure projects.
For AIR-AP3802E-FK910C, the manufacturer specification lists wireless design as Controller-based 802.11ac Wave 2 access point.
Contact YYST Global to confirm availability for AIR-AP3802E-FK910C, the required quantity, exact configuration, delivery destination and current lead time before ordering. A product listing does not confirm current inventory.
Please request a quote for AIR-AP3802E-FK910C. Final pricing depends on stock, quantity, configuration and delivery destination.
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