

AIR-AP2802E-H-K9 is a Cisco Aironet 2800 Series controller-based 802.11ac Wave 2 access point order. The exact line combines a 2802E indoor access point for external antennas, regulatory-domain token H, and a single-unit, fixed regulatory-domain order.
Cisco documents four RP-TNC antenna connectors plus a Smart Antenna connector on the 2802E. Antennas are a separate engineered part of the deployment bill of materials. Before release, record each Cisco-supported antenna part number, connector use, gain, pattern, cable type, cable loss, mounting orientation and local approval. A connector fit alone does not establish RF performance or regulatory suitability.
Cisco's ordering convention uses K9 for one access point. This line already carries a regulatory-domain token, so receiving must match the complete part number rather than accepting another domain as an equivalent. Create one asset record for the chassis serial and MAC address. Link that record to the approved destination, controller, switch port, mounting position and compliance lookup before the unit joins production. Because this is a fixed-domain line, a quotation or received label carrying another domain is a different order and requires a fresh approval. The single unit needs one serial-level record, while accessories, controller readiness and destination approval remain separate acceptance items.
Cisco's 2800 Series data sheet lists the H profile as 2.4 GHz channels 1-13; 5 GHz blocks at 5.150-5.350 and 5.745-5.825 GHz. The H profile starts its lower 5 GHz range at 5.150 GHz and also provides a separated upper block. That lower boundary distinguishes it from nearby domain profiles.
Capture the controller's complete lower-range and upper-range channel output. Match it to the approved H-domain destination and investigate a template that begins at a different lower boundary. Regulatory-domain letters are identifiers, not country names; use Cisco's compliance tool for the actual deployment country and retain the lookup date.
Procurement inference: because the lower group begins below the more common 5.180 GHz boundary, country approval and controller output must be read together. Do not infer that every channel inside the numerical span is available at the destination. Preserve the exact enabled-channel export and associate post-install measurements with it so later troubleshooting can distinguish a regulatory change from an RF-performance change.
Measure power after the access point has joined its controller and the planned radios and services are active. Record switch model, port, negotiated power level, LLDP result and any reduced-capability warning. An idle boot result is not sufficient evidence for the deployed power budget. If an injector is proposed, verify its supported use and include its exact identity in the maintained bill of materials rather than treating it as an unspecified accessory.
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.
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.
List the bracket, ceiling or wall interface, enclosure requirement, safety restraint, service clearance and cable-entry plan before scheduling installation. Receiving should identify missing mechanical items before the access point reaches site. Photograph the mounted label and final cable entry, then record how the unit can be reached for replacement. A complete electronic order can still be an unusable deployment kit when mechanical dependencies are omitted.
Define the neighboring access points and client types used for roaming validation. Record handoff behavior, interruption observed, authentication result and controller events along the intended movement path. Compare the outcome with the site's design target rather than declaring success from static association. Where this unit replaces an older AP, test both entry and exit from its cell so a local improvement does not hide a boundary problem.
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.
Map this unit to controller, licenses, authentication services, switch power, cable, bracket, antenna design and monitoring objects. For an end-of-sale platform, state which dependencies can be reused by the planned Catalyst migration and which require change. A nominal access-point replacement can fail when the surrounding platform was never inventoried. Keep the map with the asset rather than only in a one-time project file.
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.
Official evidence: Cisco Aironet 2800 Series data sheet; Cisco 2800 Series getting started guide; Cisco 2800 Series support and lifecycle page; and Cisco wireless compliance tool.
| Exact model / SKU | AIR-AP2802E-H-K9 |
| Exact Cisco order model | AIR-AP2802E-H-K9 |
| Access-point family | Cisco Aironet 2800 Series |
| Wireless generation | Controller-based 802.11ac Wave 2 |
| Antenna architecture | External-antenna model; four RP-TNC connectors plus Smart Antenna connector |
| Antenna procurement boundary | Compatible antennas and installation hardware require a separate approved bill of materials |
| Order form | single-unit, fixed regulatory-domain order |
| Physical unit quantity | 1 |
| Configuration state | Fixed regulatory-domain order |
| Regulatory-domain token | H |
| Cisco-listed channel profile | 2.4 GHz channels 1-13; 5 GHz blocks at 5.150-5.350 and 5.745-5.825 GHz |
| Lifecycle | End of sale 31 October 2022; last support date 31 October 2027 |
| Migration family | Cisco Catalyst 9100 family; validate the exact replacement design |
| Source match | AIR-AP2802E-H-K9: 2802E antenna form, H regulatory-domain profile, single-unit, fixed regulatory-domain order, quantity 1 |
| Official manufacturer reference | Cisco Aironet 2800 Series official data sheet |
Product Quotation | ![]() | Condition and Packaging | |
![]() | Technical Support Enquiry | Returns and Replacement | |
Shipping Arrangements | ![]() | Warranty Terms |
AIR-AP2802E-H-K9 Cisco Aironet 2800e 5.2 Gbps 802.11ac Wave 2 AP is a CISCO Aironet 2800 Series Access Points product supplied by YYST Global for enterprise IT procurement and infrastructure projects.
For AIR-AP2802E-H-K9, the manufacturer specification lists wireless generation as Controller-based 802.11ac Wave 2.
Contact YYST Global to confirm availability for AIR-AP2802E-H-K9, 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-AP2802E-H-K9. Final pricing depends on stock, quantity, configuration and delivery destination.
Related products

AIR-AP2802E-A-K9 is a 2802E indoor access point for external antennas supplied as a single-unit, fixed regulatory-domain order with regulatory-domain token A. Cisco lists its channel profile as 2.4 GHz channels 1-11; 5 GHz blocks at 5.180-5.320, 5.500-5.700 excluding 5.600-5.640, and 5.745-5.825 GHz. Verify destination approval, controller compatibility, exact quantity, antenna bill of materials and the 31 October 2027 support horizon before purchase.

AIR-AP2802E-A-K9C is a 2802E indoor access point for external antennas supplied as a single-unit, configurable order with regulatory-domain token A. Cisco lists its channel profile as 2.4 GHz channels 1-11; 5 GHz blocks at 5.180-5.320, 5.500-5.700 excluding 5.600-5.640, and 5.745-5.825 GHz. Verify destination approval, controller compatibility, exact quantity, antenna bill of materials and the 31 October 2027 support horizon before purchase.

AIR-AP2802E-AK910 is a 2802E indoor access point for external antennas supplied as a fixed-domain ten-unit eco-pack with regulatory-domain token A. Cisco lists its channel profile as 2.4 GHz channels 1-11; 5 GHz blocks at 5.180-5.320, 5.500-5.700 excluding 5.600-5.640, and 5.745-5.825 GHz. Verify destination approval, controller compatibility, exact quantity, antenna bill of materials and the 31 October 2027 support horizon before purchase.

AIR-AP2802E-AK910C is a 2802E indoor access point for external antennas supplied as a configurable ten-unit eco-pack with regulatory-domain token A. Cisco lists its channel profile as 2.4 GHz channels 1-11; 5 GHz blocks at 5.180-5.320, 5.500-5.700 excluding 5.600-5.640, and 5.745-5.825 GHz. Verify destination approval, controller compatibility, exact quantity, antenna bill of materials and the 31 October 2027 support horizon before purchase.

AIR-AP2802E-B-K9 is a 2802E indoor access point for external antennas supplied as a single-unit, fixed regulatory-domain order with regulatory-domain token B. Cisco lists its channel profile as 2.4 GHz channels 1-11; 5 GHz blocks at 5.180-5.320, 5.500-5.720, and 5.745-5.825 GHz. Verify destination approval, controller compatibility, exact quantity, antenna bill of materials and the 31 October 2027 support horizon before purchase.

AIR-AP2802E-B-K9C is a 2802E indoor access point for external antennas supplied as a single-unit, configurable order with regulatory-domain token B. Cisco lists its channel profile as 2.4 GHz channels 1-11; 5 GHz blocks at 5.180-5.320, 5.500-5.720, and 5.745-5.825 GHz. Verify destination approval, controller compatibility, exact quantity, antenna bill of materials and the 31 October 2027 support horizon before purchase.

AIR-AP2802E-BK910 is a 2802E indoor access point for external antennas supplied as a fixed-domain ten-unit eco-pack with regulatory-domain token B. Cisco lists its channel profile as 2.4 GHz channels 1-11; 5 GHz blocks at 5.180-5.320, 5.500-5.720, and 5.745-5.825 GHz. Verify destination approval, controller compatibility, exact quantity, antenna bill of materials and the 31 October 2027 support horizon before purchase.

AIR-AP2802E-BK910C is a 2802E indoor access point for external antennas supplied as a configurable ten-unit eco-pack with regulatory-domain token B. Cisco lists its channel profile as 2.4 GHz channels 1-11; 5 GHz blocks at 5.180-5.320, 5.500-5.720, and 5.745-5.825 GHz. Verify destination approval, controller compatibility, exact quantity, antenna bill of materials and the 31 October 2027 support horizon before purchase.