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This concern applies to Ansible declarative desired configuration in a different scenario where operators need to apply a repeated standardized configuration across a provider router fleet. For the deployed Terraform plan before apply approach, the relevant caution is instead that external drift can invalidate an earlier saved plan.

This concern applies to SNMP community versus user model in a different scenario where operators need to remove shared plaintext-community access from a sensitive provider management network. For the deployed Terraform plan before apply approach, the relevant caution is instead that external drift can invalidate an earlier saved plan.

This concern applies to secure ZTP device identity validation in a different scenario where operators need to onboard an unconfigured provider router across an untrusted initial management network. For the deployed Terraform plan before apply approach, the relevant caution is instead that external drift can invalidate an earlier saved plan.

secure ZTP server authenticity instead addresses a different condition: prevent a newly booted router from accepting malicious provisioning instructions. It would instead require you to verify the bootstrap server and signed onboarding data before configuration, not the stated goal to onboard an unconfigured provider router across an untrusted initial management network.

API bearer token scope instead addresses a different condition: authenticate a network automation script without embedding broad shared passwords. It would instead require you to supply a scoped bearer token over TLS and restrict access to required endpoints, not the stated goal to onboard an unconfigured provider router across an untrusted initial management network.

NSO service model intent mapping instead addresses a different condition: deploy a repeatable multi-router service from a single declarative service request. It would instead require you to create an NSO service model with mapping logic to device-specific configuration, not the stated goal to onboard an unconfigured provider router across an untrusted initial management network.

The proposed step is for secure ZTP server authenticity, whose purpose is to prevent a newly booted router from accepting malicious provisioning instructions. It would not perform the necessary secure ZTP device identity validation operation: validate the router's manufacturer identity and permitted ownership voucher.

The proposed step is for API bearer token scope, whose purpose is to authenticate a network automation script without embedding broad shared passwords. It would not perform the necessary secure ZTP device identity validation operation: validate the router's manufacturer identity and permitted ownership voucher.

The proposed step is for NSO service model intent mapping, whose purpose is to deploy a repeatable multi-router service from a single declarative service request. It would not perform the necessary secure ZTP device identity validation operation: validate the router's manufacturer identity and permitted ownership voucher.

The observation would verify secure ZTP server authenticity under the separate requirement to prevent a newly booted router from accepting malicious provisioning instructions. It does not demonstrate the needed secure ZTP device identity validation result: only an authenticated owned router accepts the intended onboarding process.

The observation would verify API bearer token scope under the separate requirement to authenticate a network automation script without embedding broad shared passwords. It does not demonstrate the needed secure ZTP device identity validation result: only an authenticated owned router accepts the intended onboarding process.

The observation would verify NSO service model intent mapping under the separate requirement to deploy a repeatable multi-router service from a single declarative service request. It does not demonstrate the needed secure ZTP device identity validation result: only an authenticated owned router accepts the intended onboarding process.

This defect belongs to secure ZTP server authenticity, where the affected outcome is to prevent a newly booted router from accepting malicious provisioning instructions. It is not the direct failure mode identified for the secure ZTP device identity validation design in this case: any device claiming the target IP address is blindly granted bootstrap credentials.

This defect belongs to API bearer token scope, where the affected outcome is to authenticate a network automation script without embedding broad shared passwords. It is not the direct failure mode identified for the secure ZTP device identity validation design in this case: any device claiming the target IP address is blindly granted bootstrap credentials.

This defect belongs to NSO service model intent mapping, where the affected outcome is to deploy a repeatable multi-router service from a single declarative service request. It is not the direct failure mode identified for the secure ZTP device identity validation design in this case: any device claiming the target IP address is blindly granted bootstrap credentials.

This concern applies to secure ZTP server authenticity in a different scenario where operators need to prevent a newly booted router from accepting malicious provisioning instructions. For the deployed secure ZTP device identity validation approach, the relevant caution is instead that ownership voucher trust anchors must remain current and protected.

This concern applies to API bearer token scope in a different scenario where operators need to authenticate a network automation script without embedding broad shared passwords. For the deployed secure ZTP device identity validation approach, the relevant caution is instead that ownership voucher trust anchors must remain current and protected.

This concern applies to NSO service model intent mapping in a different scenario where operators need to deploy a repeatable multi-router service from a single declarative service request. For the deployed secure ZTP device identity validation approach, the relevant caution is instead that ownership voucher trust anchors must remain current and protected.

secure ZTP device identity validation instead addresses a different condition: onboard an unconfigured provider router across an untrusted initial management network. It would instead require you to validate the router's manufacturer identity and permitted ownership voucher, not the stated goal to prevent a newly booted router from accepting malicious provisioning instructions.

RESTCONF management endpoint selection instead addresses a different condition: read YANG-modeled configuration from a device using an authenticated HTTPS client. It would instead require you to enable supported RESTCONF and query the intended data resource over TLS, not the stated goal to prevent a newly booted router from accepting malicious provisioning instructions.

gNMI ON_CHANGE subscription instead addresses a different condition: receive notifications only when eligible operational state leaves change. It would instead require you to configure ON_CHANGE for supported state paths rather than fixed polling, not the stated goal to prevent a newly booted router from accepting malicious provisioning instructions.

The proposed step is for secure ZTP device identity validation, whose purpose is to onboard an unconfigured provider router across an untrusted initial management network. It would not perform the necessary secure ZTP server authenticity operation: verify the bootstrap server and signed onboarding data before configuration.

The proposed step is for RESTCONF management endpoint selection, whose purpose is to read YANG-modeled configuration from a device using an authenticated HTTPS client. It would not perform the necessary secure ZTP server authenticity operation: verify the bootstrap server and signed onboarding data before configuration.

The proposed step is for gNMI ON_CHANGE subscription, whose purpose is to receive notifications only when eligible operational state leaves change. It would not perform the necessary secure ZTP server authenticity operation: verify the bootstrap server and signed onboarding data before configuration.

The observation would verify secure ZTP device identity validation under the separate requirement to onboard an unconfigured provider router across an untrusted initial management network. It does not demonstrate the needed secure ZTP server authenticity result: a router rejects untrusted provisioning artifacts and accepts valid owner data.

The observation would verify RESTCONF management endpoint selection under the separate requirement to read YANG-modeled configuration from a device using an authenticated HTTPS client. It does not demonstrate the needed secure ZTP server authenticity result: a router rejects untrusted provisioning artifacts and accepts valid owner data.

The observation would verify gNMI ON_CHANGE subscription under the separate requirement to receive notifications only when eligible operational state leaves change. It does not demonstrate the needed secure ZTP server authenticity result: a router rejects untrusted provisioning artifacts and accepts valid owner data.

This defect belongs to secure ZTP device identity validation, where the affected outcome is to onboard an unconfigured provider router across an untrusted initial management network. It is not the direct failure mode identified for the secure ZTP server authenticity design in this case: an unsigned file from a rogue DHCP source is treated as trusted configuration.

This defect belongs to RESTCONF management endpoint selection, where the affected outcome is to read YANG-modeled configuration from a device using an authenticated HTTPS client. It is not the direct failure mode identified for the secure ZTP server authenticity design in this case: an unsigned file from a rogue DHCP source is treated as trusted configuration.

This defect belongs to gNMI ON_CHANGE subscription, where the affected outcome is to receive notifications only when eligible operational state leaves change. It is not the direct failure mode identified for the secure ZTP server authenticity design in this case: an unsigned file from a rogue DHCP source is treated as trusted configuration.

This concern applies to secure ZTP device identity validation in a different scenario where operators need to onboard an unconfigured provider router across an untrusted initial management network. For the deployed secure ZTP server authenticity approach, the relevant caution is instead that certificate revocation and bootstrap reachability must be planned.

This concern applies to RESTCONF management endpoint selection in a different scenario where operators need to read YANG-modeled configuration from a device using an authenticated HTTPS client. For the deployed secure ZTP server authenticity approach, the relevant caution is instead that certificate revocation and bootstrap reachability must be planned.

This concern applies to gNMI ON_CHANGE subscription in a different scenario where operators need to receive notifications only when eligible operational state leaves change. For the deployed secure ZTP server authenticity approach, the relevant caution is instead that certificate revocation and bootstrap reachability must be planned.