Cisco 300-715 Bundle

Identity source sequences control where ISE looks up a principal and how defined source selection and not-found behavior are handled. “Test duplicate usernames and identity-store selection after adding or changing local and external identity providers” would remedy that alternative situation, but it would not correct the present issue: ISE nodes require a functioning relationship to the intended Active Directory identity source, including reachability, name resolution, and a healthy domain join.

“Rotate LDAP service credentials safely and monitor certificate and directory schema changes that might invalidate lookups” is the supported response when an LDAP identity store requires a supported connection and bind configuration, appropriate directory credentials, and trust for encrypted transport where configured. Here the decisive response is “Monitor AD join status separately on relevant ISE nodes and verify directory connectivity after site or firewall migrations”, so that different intervention does not meet the stated requirement.

PEAP inner credential authentication and EAP-TLS certificate authentication are different method flows, and an allowed protocol set must match the approved supplicants. “Track permitted EAP methods by device cohort and remove deprecated methods only after compatible supplicants are deployed” applies to that other condition. The reported evidence is a corporate employee's 802.1X credentials fail only on one newly deployed ISE PSN even though the same account works on the established node and directory controllers are healthy; this alternative would address the wrong dependency.

The RADIUS server identity and certificate trust path must match what the supplicant expects; the old node address and certificate are not valid replacements. “Update the RADIUS server references and install a trusted EAP server certificate with the appropriate identity on the replacement PSN” would remedy that alternative situation, but it would not correct the present issue: policy Service Nodes process RADIUS authentication and authorization near access devices; a distant request path increases dependency on WAN delay and reachability.

“Check Cisco's platform and deployment sizing guidance and allocate a supported virtual appliance profile with required CPU, memory, disk, and resource reservations” is the supported response when cisco ISE virtual sizing and supported resource reservations affect processing capacity, so merely booting an undersized VM is not proof of a supported design. Here the decisive response is “Deploy appropriately sized Policy Service Nodes nearer the campus and configure the network devices to use the supported local and backup RADIUS targets”, so that different intervention does not meet the stated requirement.

The secondary administration persona is a standby policy management node until the appropriate supported promotion or administrative failover workflow makes it primary. “Validate the failed primary state and follow Cisco's supported promotion or failover procedure before resuming configuration changes through the new primary” applies to that other condition. The reported evidence is a campus has remote wired access switches that send every RADIUS request across a slow WAN to a central node, leading to authentication timeouts during busy mornings; this alternative would address the wrong dependency.

A self-registered test guest remains unauthenticated for production access until a designated sponsor approves the request. This is a different failure mechanism from the current case, which concerns guest browsers open the designated HTTPS portal without certificate-name or issuer warnings while a fake hostname still fails validation.

This option instead describes a fresh guest association is redirected to the correct ISE portal while ordinary permitted bootstrap traffic continues to work. Testing that independent mechanism would not show whether the reported fault has been resolved.

The authorized receptionist creates a time-limited guest account while a user without sponsorship privileges cannot create new visitor access. The stem describes visitors are redirected to the correct guest portal yet their browsers display an untrusted certificate warning because the portal certificate does not cover the advertised hostname, so this explanation does not account for the observations.

Profiler identity changes do not automatically update active NAD session permissions unless the supported CoA or reauthentication action is triggered. “Configure the appropriate profiling-triggered CoA and verify RADIUS session identification and NAD dynamic authorization support” would remedy that alternative situation, but it would not correct the present issue: active scanning can affect fragile endpoints, unlike passive metadata collection, and must be scoped to authorized hosts and safe probe methods.

“Inspect the endpoint record's static identity group, dynamic profiler outcome, and authorization rule conditions before applying a controlled correction” is the supported response when explicit endpoint identity group assignment and dynamically computed profile attributes can influence policy differently, and unmanaged overrides cause confusion. Here the decisive response is “Restrict the network scan profiling probe to approved subnets and safe discovery schedules after clinical system owner review”, so that different intervention does not meet the stated requirement.

A MAC OUI provides coarse vendor information, not sufficient proof of a particular endpoint type or authorization group. “Combine additional reliable DHCP, RADIUS, SNMP, or device-sensor attributes in the profiling policy before assigning a restricted device class” applies to that other condition. The reported evidence is security enables active endpoint profiling scans across a sensitive hospital network and medical devices begin experiencing unexpected probe traffic; this alternative would address the wrong dependency.

Only whitelisted test endpoints receive active probes while protected medical devices remain outside scan scope. This is a different failure mechanism from the current case, which concerns the approved badge reader transitions into its limited authorized network segment after classification without a manual cable reset.

This option instead describes a partially identified test endpoint stays in limited access while a fully matched approved printer earns its intended profile. Testing that independent mechanism would not show whether the reported fault has been resolved.

The device matches the designated approved endpoint group consistently and the intended RADIUS result remains predictable after fresh probes. The stem describes a newly connected badge reader initially receives a restricted unknown-device result; after profiling identifies it, the switch continues enforcing the old ACL, so this explanation does not account for the observations.

That intervention addresses single ssid byod registration and transition, where Single-SSID onboarding requires a distinct initial authorization state and registration flow before an enrolled device can receive its final trusted access result. Here, the relevant failure is instead: Dual-SSID BYOD designs require the enrollment workflow or user instructions to move the configured supplicant to the secure certificate-authenticated WLAN.

That intervention addresses byod native supplicant provisioning wizard, where The supported native supplicant provisioning workflow installs the approved wireless settings and device credential; portal registration alone does not configure EAP-TLS. In this question the necessary remedy is “Provide the approved onboarding portal and supplicant configuration for the secure SSID and guide the device through the necessary network transition”, which this alternative does not provide.

That intervention addresses ise internal ca certificate signing for byod, where Certificate-based BYOD requires an appropriate issuing CA and working certificate provisioning chain; a portal alone cannot create trusted device credentials. The observed condition is a university provides an onboarding WLAN and a separate secure employee WLAN, but users stay connected to the registration WLAN after receiving their device certificates; this mechanism addresses another problem.

Approved legacy inventory can reach only required services while an unregistered device remains blocked and user 802.1X authentication still succeeds. This is a different failure mechanism from the current case, which concerns the access request reaches the expected EAP method, and Live Logs show a successful certificate authentication instead of a method-not-allowed failure.

This option instead describes the controller's RADIUS source is recognized, the wireless authentication selects the intended policy, and a test user receives authorized access. Testing that independent mechanism would not show whether the reported fault has been resolved.

Unregistered clients obtain basic address and portal prerequisites but cannot reach protected application networks before authentication. The stem describes an access policy set is scoped to a wireless SSID, but a client offering EAP-TLS is rejected because the authentication policy references a protocol set without that method, so this explanation does not account for the observations.

Excessive unfiltered profiling telemetry can overload processing queues without improving endpoint identification accuracy. “Inspect profiler queue and probe health, reduce redundant sources, and scope or tune supported probe collection to real information needs” would remedy that alternative situation, but it would not correct the present issue: endpoint identity records persist across hardware replacement unless cleaned up; MAB classification and permission can be reused by a device claiming the retired MAC.

“Inspect the profiling policy hierarchy and certainty settings, then make the specific scanner classification win on trustworthy distinguishing attributes” is the supported response when overlapping profiling policies can yield unintended results when their certainty values, parent-child relationships, and matching rules are not designed coherently. Here the decisive response is “Remove the decommissioned endpoint record, register the new scanner identity, and review the relevant endpoint authorization group”, so that different intervention does not meet the stated requirement.

Supported network device sensors can deliver endpoint metadata to ISE that may strengthen classification beyond a broad vendor address prefix. “Enable the relevant switch device-sensor collection and RADIUS attribute forwarding to an ISE profiler with appropriate policies” applies to that other condition. The reported evidence is a scanner is replaced by new hardware but ISE retains the previous scanner MAC in an allowed group, enabling an unknown device with that old address to receive scanner permissions; this alternative would address the wrong dependency.

A controlled campus access request succeeds at the nearby PSN and a failed local PSN causes the switch to use its configured healthy backup. This is a different failure mechanism from the current case, which concerns peak test traffic is processed without sustained authentication queue growth and the VM conforms to the supported ISE platform specifications.

This option instead describes a controlled primary outage is recovered with one active write-capable administration node and consistent policy replication to service nodes. Testing that independent mechanism would not show whether the reported fault has been resolved.

The updated policy is visible through authorized administrative access and a new authentication follows the intended rule on its serving policy node. The stem describes a new ISE policy node is provisioned as a small VM despite the deployment expecting many concurrent authentications and profiling events; the node becomes overloaded during a test, so this explanation does not account for the observations.

Guest account and portal settings determine how many devices one guest identity can register, so a permissive limit undermines approved device quotas. “Configure the intended guest type and portal registration device maximum and test registration through the supported guest flow” would remedy that alternative situation, but it would not correct the present issue: a hotspot guest portal can enforce an acceptable-use acceptance flow separately from individual credential-based guest login or sponsored account creation.

“Use a guest type with the approved validity window, expire the account, and ensure active-session handling respects the access policy” is the supported response when guest identity validity and account lifetime policy control when guest credentials should stop authorizing new sessions; indefinite access contradicts temporary sponsorship. Here the decisive response is “Configure a supported hotspot guest portal and redirect policy that requires the published terms acceptance before granting visitor Internet authorization”, so that different intervention does not meet the stated requirement.

Sponsor group authorization controls the permitted guest account types and durations rather than a portal login alone granting universal sponsorship rights. “Define separate authorized sponsor groups and guest-type privileges matching daily visitor and extended contractor access requirements” applies to that other condition. The reported evidence is a conference venue wants open Internet access after attendees accept legal terms, without demanding a personal employee account or sponsored password; this alternative would address the wrong dependency.

ISE must return a network device-compatible RADIUS result, and the controller must map that result into the correct guest authorization behavior. “Review the controller platform's supported redirection and final ACL or VLAN attributes and align ISE authorization profiles accordingly” would remedy that alternative situation, but it would not correct the present issue: a future expiration timestamp alone does not terminate an already authorized guest session; disabling or revoking account access must be reflected on the NAD.

“Assign a guest-only authorization result using a dedicated guest VLAN and effective ACL or equivalent network enforcement” is the supported response when successful portal login authenticates the visitor but does not inherently restrict the final authorization profile to public Internet destinations. Here the decisive response is “Disable the visitor identity and apply a supported session termination or reauthorization process for active access sessions”, so that different intervention does not meet the stated requirement.

Portal authentication uses the identity source or source sequence selected for that portal, which can be separate from corporate employee authentication policies. “Set the guest portal authentication source to the intended internal or approved external guest identity store and leave employee authentication on its own policy” applies to that other condition. The reported evidence is a visitor's contract is terminated early but their sponsored guest account remains within its ordinary validity period and the security team must end access immediately; this alternative would address the wrong dependency.