初始化项目，由ModelHub XC社区提供模型
Model: yahid/triage-agent-qwen3b Source: Original Platform
This commit is contained in:
ModelHub XC
200
completions/step_0200.jsonl
Normal file
200
completions/step_0200.jsonl
Normal file
@@ -0,0 +1,200 @@
|
||||
{"ticket_id": "TRAIN-00034", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the SSO issues involving Confluence, JIRA, Okta SCIM provisioning, and API token rotation, the OKTA SCIM integration setup is missing, so we can address Okta SCIM issues and API token rotation. For Okta SCIM provisioning, follow the Okta SCIM 2.0 Provisioning Setup and Troubleshooting (KB-00009) guide to ensure attribute mapping is correct by matching the required attributes with the downstream application requirements (e.g., userName -> email). For the SSO redirect loop in Confluence and JIRA, we rely on SAML 2.0 SSO Configuration (KB-00010) but this does not address the issues directly as it’s about SAML configuration and not the redirect loop itself. For API token rotation, follow the API Token Rotation and Revocation (KB-00013) guide for the generic REST API tokens, ensuring tokens are rotated properly without a downtime window and setting token expiration to 90 days max. No further escalation is required as we have direct solutions for the given issues without needing to refer to multiple tickets. No context from TLS certificate or Jenkins API tokens is available.\", \"cited_artifacts\": [\"KB-00009\", \"KB-00010\", \"KB-00013\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00034", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the SSO broken issue where Confluence and JIRA have a redirect loop, Okta SCIM provisioning failure, and API token expiry are involved, we should tackle each with separate configurations: For Confluence and JIRA redirect loop, there's no direct ticket from the given context. For the API token expiry, use the API Token Rotation and Revocation from KB-00013. For Okta SCIM provisioning sync failure, refer to the Okta SCIM 2.0 Provisioning Setup and Troubleshooting from KB-00009. No specific configuration for JIRA redirect loop or Jenkins API token can be done from the provided information. Escalation of these issues to a solution cannot be resolved with the given context. Escalation true.\", \"cited_artifacts\": [\"KB-00013\", \"KB-00009\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00034", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the SSO broken for multiple apps with issues in Confluence and JIRA due to redirect loop, the Okta SCIM provisioning silent failure due to attribute mapping misalignment, and the API token expiry on the identity health dashboard, we need to address each issue. For Confluence and JIRA redirect loop (likely a configuration mismatch between their SP and Okta SAML configuration), refer to the SAML 2.0 SSO configuration guide from KB-00010, ensuring the SP entity ID and ADFS ACS URL match correctly. For Okta SCIM provisioning (silent failure due to attribute mapping), map the required SCIM attributes according to KB-00009 for a seamless integration (userName to email, givenName to givenName, familyName to familyName). For the API token expiry on the dashboard, refer to API token rotation and revocation guide from KB-00013 to ensure tokens are rotated with zero downtime. No need for escalation as these guides cover all points.\", \"cited_artifacts\": [\"KB-00010\", \"KB-00009\", \"KB-00013\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00034", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the SSO broken issue for Confluence and JIRA where redirect loop is a problem, rotate the REST API token using the zero-downtime rotation pattern from KB-00013. For Okta SCIM provisioning sync failure, go through the setup and attribute mapping from KB-00009 for enabling Okta SCIM 2.0 and ensuring correct attribute mapping. Regarding the 401 on the monitoring API token for the identity health dashboard, refer to the API token rotation and revocation from KB-00013 for rotation and revocation of the API token. No direct pointers in the provided context to handle the TLS certificate issue or service account password rotation for this ticket as they are not mentioned directly in the provided context. Escalation not indicated with the given data.\", \"cited_artifacts\": [\"KB-00013\", \"KB-00009\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00034", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the SSO broken for multiple apps, the API token expiry in Confluence and JIRA can be addressed with the API Token Rotation and Revocation advice from KB-00013: Generate a new API token while the old one is still valid, update all consumers of the token, and rotate the token to prevent downtime. For the Okta SCIM provisioning sync failure, refer to the Okta SCIM 2.0 Provisioning Setup and Troubleshooting from KB-00009: Ensure that SCIM connector base URL and auth details match and use attribute mapping correctly (ensure 'userName' maps to email, 'givenName' to givenName, and 'familyName' to familyName). No direct solution for the API token expiry in the JIRA and Confluence redirect loop issues is found, and the access token 401 in the identity health dashboard is under API Token Rotation and Revocation. Escalation measures are not provided in the given context, so these issues need separate investigations and likely require different context references. \", \"cited_artifacts\": [\"KB-00013\", \"KB-00009\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00034", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the Confluence and JIRA redirect loop issue, refer to the SAML 2.0 SSO configuration guide (KB-00010) which explains that the SP Entity ID on the Confluence side must match the Audience on the JIRA side. For Okta SCIM provisioning failures, follow Okta SCIM 2.0 provisioning setup and troubleshooting (KB-00009) to ensure attribute mapping with the required attributes: userName for email, givenName, and familyName. For the Okta SCIM integration, ensure that the target app (Confluence and JIRA) supports the required Okta connectors and is enabled for Okta SCIM 2.0 provisioning. For the API token issue, use the API Token Rotation and Revocation guide (KB-00013) for zero-downtime token rotation and valid token expiry checks. No specific escalation ID matches the given context directly, and no specific certificate renewal or service account password rotation is mentioned, thus no direct reference to such contexts. Escalation or multi-faceted issues are not present in the provided references.\", \"cited_artifacts\": [\"KB-00010\", \"KB-00009\", \"KB-00013\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00034", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the SSO issues with Confluence, JIRA, Okta SCIM provisioning, and API token expiry, the Okta SCIM provisioning issue can be resolved by ensuring attribute mapping in Okta’s Okta Admin > Provisioning > App attribute mapping tab is set correctly and maintaining 30-day attribute sync frequency to avoid silent failures. For Confluence and JIRA SSO redirect loop issue, there isn’t direct solution available in the given context and could be related to SAML configuration attributes mismatch which can be checked via the Okta SAML configuration in Okta Admin > Applications > Connect > Confluence. For API token rotation issue in the identity health dashboard, follow the API token rotation procedure from the API Token Rotation and Revocation KB-00013 for rotating and revoking the tokens without downtime, by updating all consumers to the new token and re-checking the access logs. Escalation steps could not be followed from the given resources.\", \"cited_artifacts\": [\"KB-00009\", \"KB-00013\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00034", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the SSO issues with Confluence and JIRA redirect loops, the Okta SCIM provisioning sync issue with users, and the API token expiry for the identity health dashboard, we need to focus on the Okta SCIM provisioning setup and the API token rotation. For Okta SCIM provisioning, refer to KB-00009 steps 1 through 4, which include enabling the SCIM connector and configuring attribute mappings. For the API token expiration, refer to KB-00013 for API token rotation and revocation, with the zero-downtime rotation pattern and setting expiry to 90 days. Escalation is not required as all required information is available in the provided contexts. No need for certificates or any other integration details as provided contexts are about these issues specifically.\", \"cited_artifacts\": [\"KB-00009\", \"KB-00013\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00038", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the OOM crash due to unbounded Guava Cache in user-profile service, set the maximumSize property in Guava Cache to avoid heap exhaustion by -XX:MaxHeapSize parameter. For DB connection pool exhaustion, the connection limit (max value) should be managed by the hikaricp_connections_max metric in Prometheus. For rollback of DB migration, refer to KB-00020 for a rollback procedure for Kubernetes applications, and for the DB connection pool exhaustion, increase the heap size in JVM -XX:MaxHeapSize to prevent heap exhaustion. No direct reference for Okta SCIM rollback or VM rollback procedures is provided from the context provided. \", \"cited_artifacts\": [\"KB-00015\", \"KB-00016\", \"KB-00020\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00038", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the OOM crash in the user-profile service, use the JDK flag `-XX:+HeapDumpOnOutOfMemoryError -XX:HeapDumpPath=/var/log/heapdumps/ -XX:+ExitOnOutOfMemoryError` to capture a heap dump and use Eclipse MAT to analyze the heap dump for the largest retained heap and its dominant byte array, which points to Guava Cache or Caffeine unbounded cache without `maximumSize` being configured. For DB pool exhaustion, check Prometheus or Grafana for the ‘hikaricp_connections_active’ metric, confirm the pool is saturated by ‘hikaricp_connections_max’, and check the ‘idle’ and ‘active’ state in the pg_stat_activity or SHOW PROCESSLIST to ensure the connection pool exhaustion. For the DB migration rollback, use the Kubernetes/Helm rollback method with `helm rollback <release-name> 0` to rollback to the previous revision or use `kubectl rollout undo deployment/<name>` for legacy VM rollback, but no direct method for rollback in the DB migration context is provided. Escalation to Okta SCIM provision rollback is not mentioned in the given context and is for Okta integration.\", \"cited_artifacts\": [\"KB-00015\", \"KB-00016\", \"KB-00020\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00038", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the OOM crash issue, use the JVM heap dump analysis by adding `-XX:+HeapDumpOnOutOfMemoryError -XX:HeapDumpPath=/var/log/heapdumps/ -XX:+ExitOnOutOfMemoryError` to the JVM flags and capture the heap dump using `jmap -dump:format=b,file=/tmp/heap_$(date +%s).hprof <pid>`. For the DB connections exhaustion, since the service is not explicitly tied to a DB pool exhaustion in the provided context, we need to infer the problem: connection pool exhaustion can be checked by monitoring the active and pending connections in Prometheus metrics and thread dumps. For rollback with DB migration concern, follow the rollback procedures for Kubernetes (k8s rollback): `helm rollback <release-name> 0` for the rollback within 15 mins. As for DB migration rollback, there's no direct context and no specific rollback for DB migrations provided. Escalation is not required for the given context. No cited artifacts fit for the Okta integration from the retrieved context.\", \"cited_artifacts\": [\"KB-00015\", \"KB-00016\", \"KB-00020\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00038", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the OOM crash in the user-profile service due to unbounded Guava Cache or Caffeine without `maximumSize` configured (root cause), use the following for the DB pool exhaustion: Check Prometheus/Grafana metric `hikaricp_connections_active` to see if it equals `hikaricp_connections_max` and look for `idle` and `active` in pg_stat_activity state for idle connections = pool is holding connections not in use and high 'active' = queries running long (diagnosis), and restart the application service to flush the connection pool (recovery). For rollback on DB migration, refer to the DB migration rollback procedure in KB-00020 for the rollback steps (if it’s a fast deploy) or the VM rollback for legacy deployments, checking if rollback exists in the migrations folder (if DB migration was run). No direct link from retrieved text for Okta integration, but Okta SCIM setup and testing can be attempted using attributes mapping (KB-00016 for attributes mapping and KB-00009 for Okta provisioning setup if needed, but not essential here).\", \"cited_artifacts\": [\"KB-00015\", \"KB-00016\", \"KB-00020\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00038", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the OOM crash in the user-profile service, use the -XX:+HeapDumpOnOutOfMemoryError JVM flag to capture heap dumps and check the heapdump path, i.e., -XX:HeapDumpPath=/var/log/heapdumps/ and use jmap to take a heap dump: 'jmap -dump:format=b,file=/tmp/heap_$(date +%s).hprof <pid>'. For DB pool exhaustion, check Prometheus/Grafana for active connections and connections max, and use the thread dump (kill -3 <pid>) to find connection holders. For rollback, for the application DB migration rollback, refer to KB-00020 for the rollback procedure for Kubernetes/Helm deployments: `helm rollback <release-name> 0` or `kubectl rollout undo deployment/<name>`. For Okta SCIM 2.0, refer to the setup steps from KB-00015 and KB-00016 for the DB connection pool exhaustion, and no direct rollback step exists for Okta SCIM as it is not mentioned in the provided context. Escalation steps are not required as the provided context covers the necessary points for rollback procedure and issues but lacks clear methods for Okta SCIM rollback setup and DB migration rollback confirmation.\", \"cited_artifacts\": [\"KB-00015\", \"KB-00020\", \"KB-00016\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00038", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the OOM crash in user-profile service, set `-XX:+HeapDumpOnOutOfMemoryError -XX:HeapDumpPath=/var/log/heapdumps/ -XX:+ExitOnOutOfMemoryError` in the JVM options to enable heap dump and add `-XX:HeapDumpPath=/var/log/heapdumps/` to capture the heap dump on the user-profile service PID with the 'jmap -dump:format=b,file=/tmp/heap_$(date +%s).hprof <pid>'. Use Eclipse MAT to analyze the heap dump by opening the heap dump and running the 'Leak Suspects' report to identify the 'Problem Suspect' with the largest retained heap. For DB pool exhaustion, check the Prometheus metric for `hikaricp_connections_active` and `hikaricp_connections_max` to ensure the connection pool is not saturated and follow the steps to check for connection holders in the thread dump by killing the process with `kill -3 <pid>` and checking for threads in 'RUNNABLE' or 'WAITING' state with JDBC/database stack frames. For the rollback concern, the rollback procedure for a DB migration rollback can be guided by the Application Deployment Rollback Procedure in KB-00020 if the migration is within 15 minutes and for connection pool exhaustion recovery by the DB Connection Pool Exhaustion in KB-00016. No specific reference from Okta SCIM issues are mentioned in the provided context. Escalation ticket could apply if services require special attention outside the provided contexts.\", \"cited_artifacts\": [\"KB-00015\", \"KB-00016\", \"KB-00020\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00038", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the user-profile service OOM crash, configure the Guava Cache or Caffeine cache to have a maximumSize set to avoid heap exhaustion by adding the following JVM flag: `-XX:MaximumHeapSize=512m` and add `-XX:+HeapDumpOnOutOfMemoryError -XX:HeapDumpPath=/var/log/heapdumps/ -XX:+ExitOnOutOfMemoryError` to capture heap dumps for analysis. For the connection pool exhaustion in the orders service, ensure there are no idle connections being held by checking Prometheus metrics for hikaricp_connections_active and hikaricp_connections_max, and use JDBC logging in the thread dump or check the application logs for long-running queries and unclosed ResultSets. For rollback, for v5.0.0 DB schema migration rollback, refer to the rollback procedure in the Application Deployment Rollback Procedure (KB-00020), and ensure to rollback within 15 minutes to avoid DB issues. No direct escalation procedures or references to Okta SCIM are provided. Escalation to simpler steps involving clear DB migration rollback steps within the context of v5.0.0 rollback procedure is advised.\", \"cited_artifacts\": [\"KB-00015\", \"KB-00016\", \"KB-00020\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00038", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the OOM crash, use the heap dump analysis by adding the JVM flags `-XX:+HeapDumpOnOutOfMemoryError -XX:HeapDumpPath=/var/log/heapdumps/ -XX:+ExitOnOutOfMemoryError` to your application server startup. Capture heap dumps on running processes using `jmap -dump:format=b,file=/tmp/heap_$(date +%s).hprof <pid>` and analyze the dump with Eclipse MAT to find the largest retained heap, usually caused by unbounded cache such as Guava Cache without `maximumSize` configuration. For DB connection pool exhaustion, ensure the connection pool limit is not exceeded by checking Prometheus/Grafana metrics for `hikaricp_connections_max` and `hikaricp_connections_active`. For rollback of DB migration which involves database-side changes, check for rollback commands in the database migration rollback strategy, and refer to the Kubernetes rollback method under `helm rollback <release-name> 0` or `kubectl rollback` for legacy VMs based on the rollback procedures. No direct escalation issues are found as the details for rollback of these issues are provided under the respective context. No specific reference for Okta SCIM or CrashLoopBackOff issue is found in the context provided.\", \"cited_artifacts\": [\"KB-00015\", \"KB-00016\", \"KB-00020\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00003", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"The issue with the laptop on the corporate wifi failing to resolve corp-sharepoint.corp.example.com likely stems from an incorrect DNS server configuration. Check if the DNS settings are being redirected to the wrong internal server by using the command `nslookup corp-sharepoint.corp.example.com` and see if it returns 'server can't find corp-sharepoint.corp.example.com: NXDOMAIN'. If it points to the wrong internal server, it indicates an incorrect DNS server assignment setting in network properties. Correct this by going to Control Panel > Network and Sharing Center > Change adapter settings, right-click on the network adapter > Properties > Internet Protocol Version 4 (TCP/IPv4) > Properties and ensure 'Obtain an IP address automatically' is selected or manually enter the correct server address. For the split-DNS routing issue, use `ipconfig /registerdns` on Windows or `sudo nscd -i hosts` on Linux to clear the DNS cache and force DNS resolution to the internal servers. No need to escalate based on provided context.\", \"cited_artifacts\": [\"KB-00003\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00003", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"To resolve the DNS resolution failure for corp-sharepoint.corp.example.com, you need to check if the app is using the wrong DNS server by running `nslookup corp-sharepoint.corp.example.com` and ensure that the internal corp DNS server (10.10.1.53 or 10.10.2.53) is being used without issues. Use `dig @10.10.1.53 google.com +time=2` to check forwarder chain connectivity without blocking and ensure internal records (corp.example.com, svc.example.com) are authoritative by checking client DNS server assignment with `ipconfig /displaydns` (on Windows) or `cat /etc/resolv.conf` (on Linux). If internal zones are not sending queries to the internal corp server, it indicates split-DNS routing is sending the query to external resolvers, and the DNS resolution issue is internal. No need for escalation; steps include consistent configuration for internal DNS server assignments and ensuring the forwarders are not blocking. No need to cite escalate as there’s no mention of network issues or other tickets. No reference to SSL certificates or BGP peer session fixes in the provided context.\", \"cited_artifacts\": [\"KB-00003\"], \"confidence\": 0.4, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00003", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"The issue with the laptop on the corporate wifi being unable to resolve corp-sharepoint.corp.example.com is due to an incorrect internal DNS server configuration on the client side, which is fetching external resolver data. Use `nslookup corp-sharepoint.corp.example.com 10.10.1.53` to confirm the internal DNS server is configured incorrectly and uses an incorrect external DNS IP for the corp-domain. You can also use `dig @10.10.1.53 google.com +time=2` to check if the internal forwarder to the corporate ISP’s external DNS (10.10.1.53) is blocked. For internal DNS server assignment, ensure the client is configured to use the correct internal DNS (10.10.1.53, 10.10.2.53) on Windows: `ipconfig /registerdns` or on Linux: `sudo nano /etc/resolv.conf` with the nameservers listed correctly. No specific escalation steps from the provided contexts are applicable.\", \"cited_artifacts\": [\"KB-00003\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00003", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"The issue with the laptop on the office Wi-Fi not resolving corp-sharepoint.corp.example.com can be due to the wrong DNS server being used by the client. Use the 'Isolate DNS vs network' step from KB-00003 by running `nslookup corp-sharepoint.corp.example.com 10.10.1.53` on the laptop to confirm it is not using the correct corporate DNS. If `nslookup` returns NXDOMAIN, it confirms the internal DNS resolution failure. In the corporate network, the internal zones (corp.example.com, svc.example.com) are authoritative on 10.10.1.53. Ensure this DNS server is configured correctly in the client's settings. If the internal forwarder chain (10.10.1.53) is working internally but not for external names, check the connectivity by running `dig @10.10.1.53 google.com +time=2`. If there's a timeout, forwarder blocking might be the issue; ensure there are no forwarder blockers and the settings are correct on the client end. No escalation needed as the provided context is focused on DNS resolution and not the use of TLS certificates or BGP peer sessions, which are not applicable to the issue at hand.\", \"cited_artifacts\": [\"KB-00003\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00003", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"The issue with the laptop not resolving corp-sharepoint.corp.example.com from the corporate wifi is due to the wrong DNS server being used. Check with the command `nslookup corp-sharepoint.corp.example.com 10.10.1.53` to see if it returns a result, indicating the internal corporate DNS server is working correctly. If `nslookup` fails, it suggests the DNS forwarders are set incorrectly. Run `dig @10.10.1.53 google.com +time=2` to check if there’s connectivity from the internal DNS server to an external DNS. If there’s a timeout or error, the internal forwarders are likely being blocked. Ensure the client's DNS settings on the laptop are set to use the correct internal DNS servers (10.10.1.53, 10.10.2.53) by checking the DNS settings in the network adapter properties or through `ipconfig /all` for Windows or `network manager` for Linux. No specific escalation steps from the provided contexts are applicable here as we focused on DNS resolution and not certificate renewal, BGP peer session issues, or DHCP scope exhaustion. Escalation steps for other issues are not applicable as only DNS issues are being addressed here.\", \"cited_artifacts\": [\"KB-00003\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00003", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the issue of the laptop on the corporate wifi unable to resolve corp-sharepoint.corp.example.com, the primary culprit seems to be the DNS server misconfiguration leading to a failed internal DNS resolution for the corp zone. Use the step-by-step guide from the KB-00003 guide: confirm the client uses the correct DNS server by using `nslookup corp-sharepoint.corp.example.com 10.10.1.53` (if nslookup succeeds but application fails, change the DNS in the Windows settings to the internal corp DNS server 10.10.1.53 and retry. If this fails, check the internal forwarder chain by using `dig @10.10.1.53 google.com +time=2` and look for a timeout. This indicates forwarders blocking the internal queries to external resolvers. No need to escalate as these steps directly relate to the corporate DNS resolution failure. No direct reference to the other contexts.\", \"cited_artifacts\": [\"KB-00003\"], \"confidence\": 0.4, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00003", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"The issue with the laptop being unable to resolve corp-sharepoint.corp.example.com from the corporate wifi is due to the wrong DNS server being used by the application. You need to ensure that the internal corp DNS (10.10.1.53 and 10.10.2.53) is being used correctly. Run `nslookup corp-sharepoint.corp.example.com 10.10.1.53` to ensure the internal corp DNS server is being used and not an external one. If nslookup fails, then the internal DNS server configuration on the client might be wrong. Use `ipconfig /registerdns` or `ipconfig /registerdns /registerall` on Windows or `sudo dpkg-reconfigure resolvconf` on Linux to register the correct DNS server. Additionally, ensure the internal zones (corp.example.com, svc.example.com) are authoritative on the correct internal DNS server and no split-DNS routing is happening which sends the query to external resolvers. No need to escalate as all steps are based on the provided context.\", \"cited_artifacts\": [\"KB-00003\"], \"confidence\": 0.4, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00003", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the issue where the laptop on the corporate wifi can't resolve corp-sharepoint.corp.example.com, the application is failing to use the correct DNS server. Use KB-00003 to check if the client is using the wrong DNS server with the command `nslookup corp-sharepoint.corp.example.com 10.10.1.53` to target the corp DNS server. If nslookup fails, it points to forwarder connectivity issues, use `dig @10.10.1.53 google.com +time=2` to check if the forwarders are blocked or responding incorrectly. Since the internal zones are authoritative on 10.10.1.53 and NXDOMAIN for internal names means either the record is missing or split-DNS routing is sending the query to external resolvers, ensure no split-DNS routing is happening by checking with `ipconfig /flushdns` on Windows or `ipcache flush` on Linux. Escalation steps are not applicable with the provided details.\", \"cited_artifacts\": [\"KB-00003\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00016", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"To renew the TLS certificate for internal-api.corp.example.com, generate a new CSR using the command `openssl req -new -newkey rsa:2048 -nodes -keyout internal-api.key -out internal-api.csr -subj '/CN=internal-api.corp.example.com/O=Corp/C=US'`. Add SANs by creating a configuration file with `subjectAltName = DNS:internal-api.corp.example.com,DNS:api.internal.corp.example.com,IP:10.0.0.1` and add this file while generating the CSR. Submit the CSR to the IT-PKI team via ServiceNow ticket category 'Certificate > Internal PKI' with category ‘Internal TLS Cert > Renewal’. Ensure there are no other issues by checking the CSR expiration with `openssl s_client -connect internal-api.corp.example.com:443 -servername internal-api.corp.example.com </dev/null 2>/dev/null | openssl x509 -noout -dates` which returns the date of expiry. Wait 2 business days for the renewal to be processed. No need to escalate due to the lack of specific details for the other tickets provided.\", \"cited_artifacts\": [\"KB-00014\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00016", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the TLS certificate on internal-api.corp.example.com, the certificate will expire within the next 14 days, hence it needs to be renewed at least 14 days before the expiry. Generate a new CSR for internal-api.corp.example.com using the command `openssl req -new -newkey rsa:2048 -nodes -keyout internal-api.key -out internal-api.csr -subj '/CN=internal-api.corp.example.com/O=Corp/C=US'` and add SANs with a config file. Attach the CSR to an IT-PKI ticket in ServiceNow with category 'Certificate > Internal PKI'. The renewal request should be submitted at least 14 days in advance and needs to be done with the command `openssl s_client -connect internal-api.corp.example.com:443 -servername internal-api.corp.example.com </dev/null 2>/dev/null | openssl x509 -noout -dates` to check if the certificate is about to expire. No need for escalation or reference to other KBs for API token rotation or SAML configuration issues.\", \"cited_artifacts\": [\"KB-00014\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00016", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the TLS certificate on internal-api.corp.example.com, the certificate can be renewed by generating a new CSR, adding subject alternative names (SANs) in a config file, and submitting the CSR to the IT-PKI team via ServiceNow ticket category 'Certificate > Internal PKI'. Generate the CSR with 'openssl req -new -newkey rsa:2048 -nodes -keyout internal-api.key -out internal-api.csr -subj '/CN=internal-api.corp.example.com/O=Corp/C=US' and add SANs in a config file with 'subjectAltName = DNS:internal-api.corp.example.com,DNS:some.alias.internal-api'. Submit the CSR to the IT-PKI team at 'ServiceNow' with category 'Certificate > Internal PKI'. No escalatory steps are required as all the steps are covered under the provided knowledge base. No more details are provided for other tickets (IdP configuration, API token rotation, DNS resolution) hence no additional references are provided.\", \"cited_artifacts\": [\"KB-00014\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00016", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"To renew the TLS certificate for internal-api.corp.example.com, use the steps from KB-00014: Generate a new CSR using the command `openssl req -new -newkey rsa:2048 -nodes -keyout internal-api.key -out internal-api.csr -subj '/CN=internal-api.corp.example.com/O=Corp/C=US'`. Add SANs using a config file with `subjectAltName = DNS:internal-api.corp.example.com,DNS:internal-api.local,IP:192.168.1.1` for a SAN IP and DNS. Submit the CSR to the IT-PKI team via ServiceNow with category 'Certificate > Internal PKI' at least 14 days before the certificate expiry. For renewal, the IT-PKI team will issue the renewed certificate within 2 business days. Ensure this process adheres to the service level agreement by keeping the CSR request well before the certificate expiration. No need for escalation.\", \"cited_artifacts\": [\"KB-00014\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00016", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"To renew the TLS certificate for internal-api.corp.example.com, generate a new CSR with the command `openssl req -new -newkey rsa:2048 -nodes -keyout internal-api.key -out internal-api.csr -subj '/CN=internal-api.corp.example.com/O=Corp/C=US'`. For SANs, you'll need to create a config file for subjectAltName that includes `subjectAltName = DNS:internal-api.corp.example.com,IP:10.0.0.1,IP:10.1.0.1` and send this CSR to the IT-PKI team via a ServiceNow ticket with category 'Certificate > Internal PKI'. Ensure to generate the CSR at least 14 days prior to the expiration and include the CSR config details. There is no direct guidance on renewing SAML certificates or managing API tokens in the provided context. Escalation to SAML or API token management tickets isn’t applicable to TLS certificate renewal. No need to escalate.\", \"cited_artifacts\": [\"KB-00014\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00016", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"To renew the TLS certificate for internal-api.corp.example.com, generate a CSR using the provided steps: openssl req -new -newkey rsa:2048 -nodes -keyout internal-api.key -out internal-api.csr -subj '/CN=internal-api.corp.example.com/O=Corp/C=US'. Add Subject Alternative Names if needed with the config file with 'subjectAltName = DNS:internal-api.corp.example.com,IP:192.168.1.1'. Submit the CSR to the IT-PKI team via ServiceNow ticket 'Certificate > Internal PKI' with the category and summary provided. Renew the certificate 14 days before it expires to avoid SSL handshake errors. No need to escalate as the context clearly outlines steps for certificate renewal and no other issues or similar problems.\", \"cited_artifacts\": [\"KB-00014\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00016", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the TLS certificate on internal-api.corp.example.com, you need to generate a new CSR with the key and certificate details and add the intended Subject Alternative Name (SANs). Use the following steps: Generate CSR with the command `openssl req -new -newkey rsa:2048 -nodes -keyout internal-api.key -out internal-api.csr -subj '/CN=internal-api.corp.example.com/O=Corp/C=US'`. For adding SANs, create a config file like `/CN=internal-api.corp.example.com, DNS:api.corp.example.com, IP:10.10.1.10` and configure IT-PKI team for renewal by submitting the CSR via ServiceNow ticket for category 'Certificate > Internal PKI'. Monitor for renewals within a standard 2 business days. No direct references to SAML configuration or API token rotation are in the context provided for these issues.\", \"cited_artifacts\": [\"KB-00014\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00016", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the TLS certificate on internal-api.corp.example.com to be renewed, we need to generate a new CSR using the provided steps in the 'TLS Certificate Renewal for Internal Services' (KB-00014) guide. Use the command `openssl req -new -newkey rsa:2048 -nodes -keyout internal-api.key -out internal-api.csr -subj '/CN=internal-api.corp.example.com/O=Corp/C=US'` for the CSR and then add subjectAltName SANs as per the config file format in the guide. Submit the CSR to the IT-PKI team via the ServiceNow ticket category 'Certificate > Internal PKI' with the exact steps mentioned and a request for renewal at least 14 days before the certificate expiry. No further escalation needed as the context provided is sufficient for certificate renewal without needing references from other contexts.\", \"cited_artifacts\": [\"KB-00014\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00021", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the EXSTART stuck state in OSPF adjacencies, the MTU between the interfaces of both routers should be aligned or use the command `ip ospf mtu-ignore` on both interfaces to bypass the MTU mismatch issue. For the BGP peer session down issue, ensure the hold timer mismatch is not the cause by checking `show ip ospf adj` for EXSTART state and `debug ip bgp <peer-ip> events` for 'hold time mismatch' and setting `neighbor <peer-ip> timers <keepalive> <hold>` to correct the hold-timer mismatch. No specific details are available from the retrieved context for other issues like the BGP route not appearing or API gateway timeouts, but we ensure the BGP hold-timer mismatch is addressed first. Escalation of the issue without detailed context is not applicable here.\", \"cited_artifacts\": [\"KB-00002\", \"KB-00001\"], \"confidence\": 0.4, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00021", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the OSPF adjacency stuck in EXSTART, use `show ip ospf neighbor` and check if it's in the INIT state or 2-WAY state to identify the cause of MTU mismatch between the two routers’ interfaces using `ip ospf mtu-ignore` or align the MTU with `debug ip ospf adj` for area mismatch by ensuring both routers agree on `area <id> st` for non-stub areas. For the BGP peer session issue, ensure the peer address is reachable via `ping vrf MGMT <peer-ip> source <local-ip>` and check for hold-timer mismatch with `neighbor <ip> timers <keepalive> <hold>` if the peers are not in the same AS with `neighbor <ip> remote-as` configuration and fixing by using `clear ip bgp <peer-ip> events` and clear AS number configuration if there is an AS number mismatch. No further escalation for this set of issues is needed with the available resources in the context.\", \"cited_artifacts\": [\"KB-00002\", \"KB-00001\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00021", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the EXSTART state issue in the OSPF adjacency, adjust the MTU between the two routers by ensuring their interfaces have the same MTU. Use `show ip ospf neighbor` to confirm the adjacency is in a stable state like 2-WAY, and for the BGP peer session issue, ensure the hold timers are the same on both peers by using `show ip ospf neighbors detail` to check adjacency states and `debug ip ospf adj` for MD5 key matching. For the BGP configuration mismatch, use `show ip ospf neighbors detail` to identify the hold timer mismatch and adjust it with `neighbor <peer-ip> timers keepalive <holdtime>` until they are in sync. No specific steps are provided for troubleshooting the missing BGP route to 10.99.0.0/24 with OSPF redistribution as it seems to be outside the direct troubleshooting guides given for BGP and OSPF configuration states and is not covered in the provided contexts directly.\", \"cited_artifacts\": [\"KB-00002\", \"KB-00001\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00021", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the OSF adjacency stuck in EXSTART state, ensure that the MTU (Maximum Transmission Unit) between the neighbors is the same and aligns with the peer router's MTU. Use the command `show ip ospf neighbor detail` to check and ensure the hello/dead intervals are matching (use `show ip ospf neighbor detail` and look for the correct MTU in the output). For the BGP route not appearing in OSPF, ensure the area mismatch by checking with `show ip ospf neighbor detail` and ensuring area flags in `show ip ospf neighbor detail` are consistent. No direct steps from the provided context directly address the BGP route for redistribution in OSPF (which is not in the context). So we can use the MTU and area flag configurations directly. There is no resolution from the context for ensuring BGP hold timer mismatch. Escalation to BGP peer configuration issues: Check for hold timer mismatch with `show ip ospf adjacency` on both routers and ensure hold-interval is same for both peers. Use `neighbor <ip> timers <keepalive> <hold>` command to adjust and ensure hold-timer is same and equal for keepalive and hold. No direct fixes for clear ACL blocking TCP/179 in BGP state as it's not in the context, but we can ensure router configurations to be in line with other steps. Escalation: No direct escalation fixes given in context. No escalation needed based on context.\", \"cited_artifacts\": [\"KB-00002\", \"KB-00001\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00021", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the EXSTART issue in the OSPF adjacency, use `show ip ospf neighbor` to check if the neighbor is stuck at the INIT state and align the MTU between the two interfaces by ensuring `ip ospf mtu-ignore` or adjusting the MTU to match the interface MTU. For the BGP peer session down, verify the AS numbers of both peers match with `neighbor <ip> remote-as <AS>`, and ensure the hold-timer is set correctly with `neighbor <ip> timers <keepalive> <hold>`. No need for configuration changes from the other contexts provided. Escalation: No escalation in context provided.\", \"cited_artifacts\": [\"KB-00002\", \"KB-00001\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00021", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the OSPF adjacency issue being stuck in EXSTART state, ensure that the MTU between the two peers match by running `show ip ospf neighbor detail` and checking if the interfaces have consistent MTU using `show ip ospf neighbor detail | include neighbor_address` and `show ip ospf interface` to compare MTU. For the BGP route issue, ensure that the hold-timer mismatch in OSPF is resolved by using `show ip ospf neighbor detail` to check if adjacency is in INIT or 2-WAY states and adjusting MTU settings accordingly. For BGP peer session down, run `show ip ospf neighbor detail` to see BGP states and ensure hold-timer mismatch by tuning `neighbor <ip> timers <keepalive> <hold>` to align keepalive and hold timers. No direct issues from other retrieved contexts are applicable.\", \"cited_artifacts\": [\"KB-00002\", \"KB-00001\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00021", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the OSPF adjacency issue in the EXSTART state, align the MTU by ensuring the physical MTU matches the interface MTU on both routers using the `show ip ospf neighbor detail` to find MTU mismatches and adjusting `ip ospf mtu-ignore` as necessary. For the BGP route issue, ensure hold timers are synchronized with `show ip ospf neighbor detail` to check hold timers and `debug ip ospf adj` to look for area mismatch between `show ip ospf` area flags. No direct tools from the context point to the API Gateway timeout or the corporate DNS issues which are not related to the network adjacency and route issues. Hence, the tickets can only be solved by referring to the provided BGP and OSPF guides: refer to KB-00002 for MTU, area mismatch resolution for OSPF adjacency, and the BGP hold timer mismatch for BGP in the BGP Troubleshooting Guide (KB-00001). No other information directly solves the VPN tunnel flapping or DNS resolution from the context.\", \"cited_artifacts\": [\"KB-00002\", \"KB-00001\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00021", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the EXSTART adjacency failure in OSPF, ensure the MTU between the peer interfaces is consistent by running `show ip ospf neighbor detail` and checking if the hello/dead timers match the remote router's settings. Use `show ip ospf neighbor detail` to identify the area types of both routers and ensure they agree on the `area <id> st` configuration. For the BGP route not appearing issue, check the peer AS numbers and configurations by verifying `neighbor peer-ip remote-as <peer-as-number>` on both routers and ensuring there is no configuration mismatch in `neighbor peer-ip timers <keepalive> <hold>` or MD5 keys. There are no direct calls to fix the BGP peer session down problem based on the provided resources. Thus, no specific CLI command or configuration from the provided contexts for the BGP peer session down aspect is applicable. Escalation not required as both the OSI issues have their respective resolutions in the retrieved context.\", \"cited_artifacts\": [\"KB-00002\", \"KB-00001\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00024", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"The Okta SCIM 2.0 provisioning setup issue for Okta to Salesforce syncs silent failures, which needs to be addressed by following the Okta SCIM 2.0 provisioning setup steps from KB-00009. In Okta Admin: Applications > App > Provisioning tab, enable SCIM provisioning. Set the SCIM connector base URL to 'https://<your-app>/scim/v2/' and ensure the OAuth2 token is configured correctly with the base URL and secret key. In Okta, go to Apps > Scim Connector > Test Connector to ensure it’s connected correctly and returns 200 status. Ensure that the attribute mappings in Okta are set to userName (email), givenName, familyName, and phoneNumbers[0].value as required in the attribute mappings. For Salesforce deprovisioning, there’s no direct information in the provided context to fix this, hence we can't address the Salesforce account deprovisioning issue here. Escalation is not needed in the current context.\", \"cited_artifacts\": [\"KB-00009\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00024", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the Salesforce offboarding issue where 8 offboarded employees still have active accounts and the SAML cert for Salesforce in Okta expires in 5 days, we can configure Okta SCIM provisioning in Okta Admin to ensure the user lifecycle sync from Okta to Salesforce. In Okta Admin, under Applications, enable SCIM provisioning for Salesforce. Set the SCIM connector base URL to `https://<your-app>/scim/v2/`. Ensure the Auth header uses HTTP and enter the Bearer token generated in Okta. Test the connector via a GET /scim/v2/Users request and enable the push functionalities (New Users, Profile Updates, Deactivate Users) as these attributes need to be synced from Okta to Salesforce. For the SAML cert issue, there is no direct Okta or Salesforce specific solution mentioned; hence, we look for Okta SCIM issue which has a resolution via Okta SCIM settings under Okta Admin. No other steps are applicable from the given context for Active Directory, TLS, or SAML certificate issues. No CVEs or escalation measures found from the provided context.\", \"cited_artifacts\": [\"KB-00009\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00024", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the Salesforce users still having active accounts despite offboarding and SAML cert expiration in Okta, we can use Okta SCIM 2.0 provisioning setup to manage user lifecycle. We need to ensure that Okta is configured to sync with Salesforce for user lifecycle (create/update/deactivate) by following the steps from Okta SCIM 2.0 Provisioning Setup and Troubleshooting (KB-00009). Go to the Okta Admin Console, Applications, and select the Salesforce app. Enable SCIM provisioning and set up attribute mappings accordingly. No direct escalation from the provided info on Okta certificate expiration or Salesforce deprovisioning exists. No specific certificate or AD authentication failures are relevant to Okta user deprovisioning. Escalation tools are not found in the given resources. Hence, direct tool escalation is not required. Troubleshoot Okta provisioning by ensuring Okta is not silently silencing Salesforce user deprovisioning and attribute mappings are correctly set.\", \"cited_artifacts\": [\"KB-00009\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00024", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"The Okta SCIM 2.0 provisioning setup error in Okta Admin can be fixed by ensuring the Okta App is configured with the right SCIM attributes mapping as described in KB-00009. For the Salesforce offboarding issue, it appears there's no direct fix from the provided context. However, the Okta SCIM configuration ensures users are deactivated on Okta and syncs these actions to Salesforce for deprovisioning. No specific Okta MFA reset or Active Directory problems are mentioned which fits the Okta SCIM setup. No need for Azure AD or Internal TLS certificate renewal for the Okta and Salesforce ticket details. Escalation isn’t necessary as no supporting context from other mentioned issues.\", \"cited_artifacts\": [\"KB-00009\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00024", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the Salesforce users still having active accounts after offboarding due to the Okta SCIM 2.0 provisioning misconfiguration, you need to ensure Okta provisioning is correctly configured and misconfigured is not due to any silent provisioning failures. Use Okta Admin Console to enable SCIM provisioning on the Okta App and use the attribute mapping and ensure the required and common attributes (userName, givenName, familyName) match with Salesforce attributes. Also, ensure Okta admin has the Connector Base URL: 'https://<your-app>/scim/v2/' and test the connector for no 401 errors. For the SAML cert issue, Okta SCIM attribute mappings (givenName, familyName) should be set in Okta Admin. There is no direct SAML cert renewal issue mentioned. Use the provided Okta MFA reset steps if there are user actions required. No direct solution for Active Directory failures or TLS certificate issues from the provided context.\", \"cited_artifacts\": [\"KB-00009\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00024", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the Salesforce users not being deprovisioned after offboarding due to an Okta SCIM 2.0 provisioning sync failure, we should set up and configure Okta SCIM provisioning in Okta Admin Console. First, enable SCIM provisioning by going to Applications > App > Provisioning tab and enabling it for the Salesforce application. Make sure to map the required SCIM attributes (userName, givenName, familyName) and possibly add optional attributes like title and department. For SAML certificate management, there's no direct correlation in the provided context for Okta certificate specifics, hence we refer to the attribute mapping for Okta SCIM configuration as per KB-00009. No specific Okta MFA or AD/ADFS configurations are provided in the retrieved context for Okta SCIM and Salesforce integration, so we cannot address Okta MFA or Active Directory authentication aspects in this context. Escalation is not applicable based on provided data.\", \"cited_artifacts\": [\"KB-00009\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00024", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the Salesforce issue where offboarded employees are still active and the Okta SAML cert expires in 5 days, there's no direct fix from the provided contexts but Okta SCIM integration configuration can be looked at for errors. In Okta SCIM 2.0 provisioning, ensure the syncs user lifecycle (create/update/deactivate) are properly configured from Okta to Salesforce and that there are no silent failures due to misconfiguration. Check for errors under common failures and attribute mapping points in Okta SCIM 2.0 Provisioning Setup and Troubleshooting (KB-00009) for the attribute mapping and attribute consistency between Okta and Salesforce attributes. There are no direct fixes for the Salesforce deprovisioning error and the SAML cert expiration problem based on the provided context. Escalation to IT admins via Okta Admin Console > Directory > People and checking Okta SCIM base URL and attribute mapping are the steps to take.\", \"cited_artifacts\": [\"KB-00009\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00024", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the Salesforce offboarding issue where 8 offboarded employees still have active Salesforce accounts due to Okta SCIM silent provisioning failures and the Okta SAML cert expiring in 5 days, we need to adjust Okta SCIM 2.0 provisioning to ensure the Okta to Salesforce sync is not failing silently and also manage the Okta SAML cert expiration. Use Okta Admin Console to enable SCIM provisioning and ensure the attribute mapping is done correctly between Okta and Salesforce as specified in the Okta SCIM 2.0 provisioning setup guide. For the Okta SAML cert expiration, there’s no specific tool or direct details available, but we can assume Okta supports SSO and regular certificate rotation but we can guide using Okta MFA and SAML configurations best we can within the Okta Admin Console and Okta MFA reset for Okta SSO issues with Okta MFA and Okta MFA Reset processes. No specific reference ID provided in the context to cite directly for these services but Okta guidelines are cited. Escalation not needed as we can follow Okta admin steps and SAML 2.0 configurations. Escalation prevent.\", \"cited_artifacts\": [\"KB-00009\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00033", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the BGP peer session issue, use `debug ip bgp <peer-ip> events` and check for NOTIFICATION messages to look for ce/hold-timer error subtypes, and fix hold-timer mismatch with `neighbor <ip> timers <keepalive> <hold>` or clear ACL blocking TCP/179. For the OSPF adjacency issue, ensure MTU mismatch by checking `show ip ospf neighbor` for INIT state and aligning the MTU between peers or fix area-type mismatch ensuring both routers agree on area flags area <id> st. For the DHCP scope exhaustion, clear the DHCP lease pool to manage utilization with `clear ip dhcp binding *` or `ip dhcp pool CORP_WIFI / lease 1` and prevent scope exhaustion by reducing the lease time from 8 days to 1 day `ip dhcp pool CORP_WIFI / lease 1`. No direct reference to VLAN trunk config issues or DNS resolution failures in the provided contexts, hence no specific action from above KBs are provided for this particular failure.\", \"cited_artifacts\": [\"KB-00002\", \"KB-00001\", \"KB-00006\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00033", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For BGP peer session down, use KB-00001 for the hold-timer mismatch by setting `neighbor <ip> timers <keepalive> <hold>` to match the peer's hold interval and clearing ACLs on both ends blocking TCP/179 with `ping vrf MGMT <peer-ip> source <local-ip>` to ensure connectivity. For OSPF adjacencies, use KB-00002 to ensure that the MTU between peers are aligned by checking the MTU with `show ip ospf neighbor` for a stuck state in INIT or EXSTART with `debug ip ospf adj` for area mismatch and aligning the area flags with `show ip ospf` area flags. For DHCP pool exhaustion, use KB-00006 to clear the pool to an 8-day lease and fix DHCP snooping to prevent address exhaustion with `ip dhcp pool CORP_WIFI / lease 1` or by adjusting the DHCP scope with `clear ip dhcp pool scope <specific-ip>` or `show ip dhcp pool utilization` for normalization. Escalation steps are not needed as all issues are resolved by the provided contexts.\", \"cited_artifacts\": [\"KB-00001\", \"KB-00002\", \"KB-00006\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00033", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For BGP peer session down, use the hold-timer mismatch resolution from KB-00001 with `neighbor <ip> timers <keepalive> <hold>` or clear ACL blocking TCP 179 to fix the hold-timer mismatch. For OSPF adjacency issues, align the MTU between the interfaces with `ip ospf mtu-ignore` and ensure area-type mismatches with `show ip ospf` area flags setting both routers to the same area type. For DHCP pool exhaustion, clear the pool with `clear ip dhcp binding *` if more than 95% utilization and monitor the DHCP scope exhaustion with `show ip dhcp pool`. No concrete steps are provided for DNS resolution failures from the given context, but checking the zones and forwarders in `nslookup <hostname> <dns-server-ip>` for internal vs external resolution helps. No clear escalation steps from the provided information for the root cause of all three issues combined.\", \"cited_artifacts\": [\"KB-00002\", \"KB-00001\", \"KB-00006\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00033", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the issue of BGP peer session down, use the hold-timer mismatch fix from BGP Peer Session Down — Troubleshooting Guide (KB-00001): Use `neighbor <peer-ip> timers <keepalive> <hold>` to correct the hold timer mismatch. For the OSPF adjacency issue, ensure the MTU between the two peers is the same and possibly add `ip ospf mtu-ignore` on the interface. For the DHCP pool exhaustion, for immediate recovery, clear the binding table with `clear ip dhcp binding *` but only in a maintenance window to avoid client instability. No specific fix or escalation can be determined from the provided context for the Cisco DNS failure. No relevant artifact mentioned. Escalation is not indicated.\", \"cited_artifacts\": [\"KB-00001\", \"KB-00002\", \"KB-00006\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00033", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the issue of BGP peer session dropping, adjust hold-timer mismatch by running `neighbor <peer-ip> timers <keepalive> <hold>` on the router. For the lack of adjacency in OSPF due to MTU mismatch, ensure the MTU of both interfaces are consistent by using `ip ospf mtu-ignore` on both interfaces and making sure the `hello` interval equals the `dead interval`. For the DHCP scope exhaustion issue, clear the DHCP pool bindings with `clear ip dhcp binding *` in the maintenance window or target a specific client with `clear ip dhcp binding <specific-ip>` to clear the DHCP bindings. Escalation to these tickets is not required due to direct solutions from the provided contexts.\", \"cited_artifacts\": [\"KB-00001\", \"KB-00003\", \"KB-00002\", \"KB-00007\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00033", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the network failures with BGP peer session drop, we need to correct the hold-timer mismatch by using `neighbor <ip> timers <keepalive> <hold>` to synchronize the hold timer between the BGP peers, ensuring the BGP hold time interval matches the hold interval of the peer router. For the OSPF adjacency failure, check for MTU mismatch by ensuring that the MTU between the peer interfaces is consistent and setting `ip ospf mtu-ignore` on both interfaces and aligning their MTUs. For DHCP pool exhaustion, clear IP DHCP binding to force clients to renew their address in `clear ip dhcp binding *` if utilization >95% in `show ip dhcp pool`. No need to escalate as these issues can be addressed with the information from KB-00002 for BGP, KB-00003 for OSPF, and KB-00006 for DHCP. No specific escalation required.\", \"cited_artifacts\": [\"KB-00002\", \"KB-00001\", \"KB-00006\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00033", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the BGP peer session down issue, correct the hold-timer mismatch with `neighbor <ip> timers <keepalive> <hold>` or clear ACL blocking TCP 179. For the area adjacency issue with OSPF, ensure that area flags on both routers agree on `neighbor <ip> timers <keepalive> <hold>` and align the MTU between the interfaces (if MTU mismatch) with `ip ospf mtu-ignore` on both interfaces. For the DHCP pool exhaustion, clear the DHCP binding to a specific pool for targeted usage with `clear ip dhcp binding <specific-ip>` or increase the lease time from 8d to 1d with `ip dhcp pool CORP_WIFI / lease 1`. No escalatory actions are needed for the DNS resolution failures as it’s outside the scope of the provided context and related to non-network network issues. Monitor the system with the provided commands and configurations to ensure stability.\", \"cited_artifacts\": [\"KB-00002\", \"KB-00001\", \"KB-00006\", \"KB-00003\"], \"confidence\": 0.4, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00033", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the BGP peer session down issue, use `debug ip bgp <peer-ip> events` and look for NOTIFICATION messages indicating subtype 'NOTIFICATION messages for hold-timer mismatch with `neighbor <ip> timers <keepalive> <hold>` or clear ACL blocking TCP/179`. For the OSPF adjacency failure, ensure `show ip ospf neighbor` doesn't show 'BGP state = Active' and check MTU mismatch by ensuring `show ip ospf mtu-ignore` on both interfaces or aligning physical MTU. For the DHCP scope exhaustion, clear leases with `clear ip dhcp binding *` if utilization is over 95% and clear specific leases if necessary, with `clear ip dhcp binding <specific-ip>` and reduce lease time with `ip dhcp pool CORP_WIFI / lease 1`. No root cause for DNS resolution failure mentioned in the retrieved context. Escalation measures are not suggested given the context.\", \"cited_artifacts\": [\"KB-00002\", \"KB-00007\", \"KB-00003\", \"KB-00001\", \"KB-00006\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00031", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the 504 Gateway Timeout on the API gateway for the /billing/invoice endpoint, adjust the proxy_read_timeout in the Kong config to 60000 to increase the timeout from the default 30000 seconds. For rollback of the billing service v3.1.0, since it's a Kubernetes deployment, use the Kubernetes rollback procedure: `helm rollback <release-name> 0` to revert to the previous version 3.0.8. There's no direct help for the API gateway 504 timeout from the provided context, so we'll focus on rollback and not on certificate, token, or DHCP scope exhaustion issues. Escalation for API token issues is not mentioned in the provided context, and hence, not applicable here.\", \"cited_artifacts\": [\"KB-00013\", \"KB-00018\", \"KB-00020\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00031", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the API Gateway 504 timeout on the /billing/invoice endpoint, adjust the timeout setting in the API gateway configuration to ensure it does not exceed the limit by setting `proxy_read_timeout 60000` in the configuration file (e.g., in Kong config). For rollback of the billing service v3.1.0, refer to the Application Deployment Rollback Procedure from KB-00020 where for Kubernetes deployments, use `helm rollback <release-name> 0` to rollback to the previous version v3.0.8. No specific rollback procedures are provided for VMs and DB migrations in the given context. No TLS certificate or API token issues are mentioned in the context. Escalation to another tool or additional information is not needed from the context.\", \"cited_artifacts\": [\"KB-00018\", \"KB-00020\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00031", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the 504 Gateway Timeout issue on the /billing/invoice API endpoint due to DB query regression, use the API Gateway 504 Timeout Troubleshooting steps from KB-00018. Adjust the timeout configuration in the API Gateway: `proxy_read_timeout 60000` to handle the 60-second timeout in Kong (which should be adjusted per the API Gateway settings). For rollback of the billing-service v3.1.0 deployment, refer to the Application Deployment Rollback Procedure from KB-00020. Use `helm rollback <release-name> 0` for the Kubernetes/Helm rollback or `kubectl rollout undo deployment/<name>` for non-Helm, ensuring to do it within the 15-minute window from the deployment. No other ticket mentions TLS certificate renewal, API token rotation, or DHCP scope exhaustion directly for the given issues.\", \"cited_artifacts\": [\"KB-00018\", \"KB-00020\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00031", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the API Gateway 504 timeout issue, adjust the timeout configuration in the API Gateway by setting `proxy_read_timeout 60000` in the configuration file under the corresponding service in Kong. For rollback of the billing-service v3.1.0, use the Kubernetes/Helm rollback procedure as detailed in the Application Deployment Rollback Procedure (KB-00020). Execute the rollback using the command `helm rollback <release-name> 0` or `kubectl rollout undo deployment/<name>`. No urgency for certificate renewal or API token rotation as they do not relate to the issue described. Escalation: None.\", \"cited_artifacts\": [\"KB-00020\", \"KB-00018\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 0.5, "step": 200}
|
||||
{"ticket_id": "TRAIN-00031", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the API Gateway 504 timeout issue, adjust the timeout configuration in the API gateway settings as per the guide: Increase the `proxy_read_timeout` to 60 seconds in the Kong configuration file or use the command `proxy_read_timeout 60000` to ensure the gateway doesn't timeout too early. For rollback, refer to the Application Deployment Rollback Procedure: Use `helm rollback <release-name> 0` for Kubernetes deployments or `kubectl rollout undo deployment/<name>` for non-Helm deployments to rollback to v3.0.8 if possible and within 15 minutes to avoid SLA violations. No certificate issues are evident from the retrieved context. No API token or DHCP scope exhaustion are linked to this issue according to the provided documents. No further data can be extracted from the given context to fix the API Gateway 504 issue.\", \"cited_artifacts\": [\"KB-00018\", \"KB-00020\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00031", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the API Gateway 504 timeout issue, you need to adjust the timeout configuration in the API Gateway itself by using the command `proxy_read_timeout 60000` in the config file as per the API Gateway 504 Timeout Troubleshooting (KB-00018). For rollback of the billing service to the previous version v3.0.8, follow the Application Deployment Rollback Procedure (KB-00020) for Kubernetes/Helm deployments: Use `helm rollback <release-name> 0` or `kubectl rollout undo deployment/<name>` depending on the deployment type. Escalation is not required with the given context.\", \"cited_artifacts\": [\"KB-00018\", \"KB-00020\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 0.5, "step": 200}
|
||||
{"ticket_id": "TRAIN-00031", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the API Gateway 504 timeout issue with the /billing/invoice endpoint, we need to adjust the timeout configuration in the API Gateway (Kong) with the setting `proxy_read_timeout 60000` (in seconds) to ensure the upstream service does not exceed the gateway's timeout. For the rollback of the billing service v3.1.0, we refer to the Kubernetes/Helm rollback procedure with the command `helm rollback <release-name> 0` for the version rollback, assuming the deployment is managed by a Kubernetes cluster. No need for further rollback methods based on the given information. No direct REST API or TLS certificate examples apply here as they are not relevant to the ticket details provided.\", \"cited_artifacts\": [\"KB-00018\", \"KB-00020\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00031", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the 504 Gateway Timeout issue with the API gateway at the /billing/invoice endpoint, refer to the troubleshooting guide from KB-00018 which suggests filtering access logs for 504s and testing the upstream directly with a bypass of the gateway and direct hit to the upstream service using 'grep 504 /var/log/kong/access.log | awk '{print $7, $9}' | sort -n' and 'curl -w '%{time_total}' -o /dev/null http://<upstream-host>:<port>/endpoint' respectively to identify the slow upstream and bypass issues. For rollback, no direct mention is given but following the rollback guide in KB-00020 for a Kubernetes deployment, use the helm rollback command for the API service: `helm rollback <release-name> 0` if the billing-service is using Helm, or use `kubectl rollout undo deployment/<name>` for non-Helm deployments. No direct reference is found for the API Gateway issue rollback or certificate renewal. No references for API token rotation, DHCP exhaustion, or Java (no mention of it in retrieved context).\", \"cited_artifacts\": [\"KB-00018\", \"KB-00020\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00048", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the Okta MFA reset issue, IT admins should follow the Okta MFA reset steps in the Okta Admin Console: Navigate to People > Search user > Click on the user > More Actions > Reset Multifactor. Confirm the reset with an email activation and do not reset if active sessions exist. Ensure there are no active Okta SCIM provisioning failures by enabling SCIM 2.0 provisioning in Okta Admin with the provided steps: enable SCIM provisioning in Okta, set the SCIM connector base URL, and ensure attribute mappings align with attribute requirements (userName maps to email, givenName, and familyName). No specific Azure AD/Entra or SAML troubleshooting steps are applicable based on the provided contexts. No Active Directory context is relevant to the MFA reset. Escalation not necessary as all provided steps are specific to Okta MFA and Okta SCIM configurations without overlap with the ticket's context.\", \"cited_artifacts\": [\"KB-00011\", \"KB-00009\", \"KB-00010\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00048", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"The Okta MFA issue for the 200 users can be addressed by following Okta Admin Console procedures and SCIM 2.0 setup in Okta. For policy change issues, refer to Okta MFA reset in Okta Admin Console to reset the MFA for the user with the Okta Admin Console action: Go to People > Search user > Click user > More Actions > Reset Multifactor and confirm the reset via Okta MFA reset process. For SCIM sync failure and silent provisioning failures, refer to the Okta SCIM 2.0 Provisioning Setup and Troubleshooting (KB-00009) to ensure SCIM attribute mappings and configurations are correct by ensuring no silent sync failures. No need to escalate as the context includes relevant Okta MFA and SCIM troubleshooting procedures.\", \"cited_artifacts\": [\"Okta MFA reset\", \"Okta SCIM 2.0 Provisioning Setup and Troubleshooting (KB-00009)\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00048", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"The outage of Okta MFA for the 200 users due to policy changes can be handled by Okta Admin Console through the Okta MFA reset procedure for IT admins. For the service account failures, there is no direct corresponding issue from the provided context. However, for the Okta MFA reset, we can follow the Okta Admin Console procedure for resetting MFA by going to the People section and resetting a user by clicking More Actions > Reset Multifactor. Ensure to verify user identity via video call or badge scan before resetting. No specific Okta API or attribute mapping from the context. Escalation is not applicable as the context does not suggest any such issues.\", \"cited_artifacts\": [\"KB-00011\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00048", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the Okta MFA reset issue, follow the Okta Admin Console steps for policy change: In Okta Admin > Directory > People > Search user, click the user and use More Actions > Reset Multifactor. Confirm the reset and ensure no active sessions are hijacked by checking 'Current Sessions' and terminating all before reset. For the Okta SCIM provisioning issue, go to Okta Admin > Applications > App > Provisioning tab and enable SCIM provisioning with the given attributes for attribute mapping. No specific troubleshooting for the Okta MFA SAML issues is provided in the context, but ensure the SP Entity ID matches the IdP Audience without mismatching audiences or InResponseTo mismatches. No issues are directly linked to Active Directory problems in the provided context.\", \"cited_artifacts\": [\"KB-00011\", \"KB-00009\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00048", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the Okta MFA reset issue, we need to ensure that we follow Okta Admin Console steps for resetting the MFA (steps 1-4 from Okta MFA reset in KB-00011). Since Okta SCIM 2.0 provisioning is involved and might have caused silent failures, we need to look into Okta SCIM provisioning setup and attribute mapping from KB-00009 to avoid sync failures. No direct fixes are provided for the Google Workspace or Azure AD/Entra issues here. Escalation details are not available in the provided context, so no escalation needed. Escalation: No, lacking direct escalation fix as per the context.\", \"cited_artifacts\": [\"Okta MFA reset (KB-00011)\", \"Okta SCIM 2.0 Provisioning Setup and Troubleshooting (KB-00009)\"], \"confidence\": 0.1, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00048", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the Okta MFA outage issue where 400 users were locked out for 90 minutes and Okta admin console user lockouts can be resolved by checking the Okta Admin Console for the user lockout status and ensuring the Bearer token in the Okta admin application settings are up-to-date and do not exceed the token expiration. For the Okta SCIM provisioning failure, refer to the Okta SCIM 2.0 Provisioning Setup and Troubleshooting KB-00009 for synchronization issues; it suggests enabling SCIM provisioning, setting the connector base URL with the correct auth and attribute mapping in the Okta Admin Console. No specific fixes for service accounts failures are evident from the provided information, thus escalating for additional guidance.\", \"cited_artifacts\": [\"KB-00011\", \"KB-00009\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00048", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the Okta MFA reset issue, for Okta SCIM provisioning misconfiguration which is causing silent failures due to attribute mapping (inconsistent attribute mappings between Okta and target application), follow the setup steps: In Okta Admin: Applications > App > Provisioning tab > Enable SCIM provisioning. Use the attribute mapping by setting the required attributes: userName (maps to email), givenName, and familyName. Ensure the SCIM connector base URL is used correctly and test the connector: Okta sends a GET /scim/v2/Users request. Status 200 = working. For account lockouts in Okta, refer to the Okta MFA reset procedure: search the user via Okta Admin Console > Directory > People > Search user, click user > More Actions > Reset Multifactor, and follow the Okta MFA reset steps for account unlocking. No specific information from Active Directory or SAML configurations are available in the provided context. Escalation not necessary for this MFA related issue.\", \"cited_artifacts\": [\"KB-00009\"], \"confidence\": 0.1, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00048", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the Okta MFA reset issue, follow the Okta MFA reset steps from the Okta MFA Reset KB-00011 for the Okta Admin Console: Enable SCIM provisioning in Okta Admin by going to Applications > App > Provisioning and enable the SCIM connector with the provided target app details. Ensure attributes map correctly by aligning `userName` to email, `givenName` to first name, and `familyName` to last name in the attribute mapping. For the Google Workspace reset, use `gam update user <email> is2svEnrolled false` and notify the user to re-enroll at myaccount.google.com/signinoptions/two-step-verification. No immediate escalatory steps from the given context are applicable as the issue is operational with clear steps for MFA reset and Okta SCIM provisioning setup. No specific errors from SAML failures or Active Directory are mentioned and are not pertinent to the Okta MFA context.\", \"cited_artifacts\": [\"KB-00011\", \"KB-00009\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00049", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the BGP route leak issue causing internet services to be unreachable, follow the steps in the BGP peer session troubleshooting guide (KB-00001) for the peer session down: check for hold-timer mismatch with `neighbor <ip> timers <keepalive> <hold>` and clear ACL blocking TCP/179 if the peer address from the router VRF: `ping vrf MGMT <peer-ip> source <local-ip>` fails. No other provided guides address BGP peer session specifics.\", \"cited_artifacts\": [\"KB-00001\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 0.5, "step": 200}
|
||||
{"ticket_id": "TRAIN-00049", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the BGP peer session down causing a BGP route leak to the upstream provider since 14:00, use the BGP troubleshooting guide (KB-00001) to address the issue. Ensure that the hold timer match between the local router and the peer address by using `show bgp neighbors <peer-ip>` to check the BGP state and `debug ip bgp <peer-ip> events` for NOTIFICATION messages, looking for 'BGP notification: hold time mismatch'. Fix the hold-timer mismatch using `neighbor <ip> timers <keepalive> <hold>` on the router. No other steps from the APIs or the API Gateway can be used as there are no clues for those in the provided context. Escalation steps are not applicable as there is a specific BGP route leak issue and a guide on BGP peer session down in the provided context.\", \"cited_artifacts\": [\"KB-00001\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00049", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the BGP route leak causing the internet outage since 14:00, the configuration mismatch in hold-timer mismatch is the primary issue. Use `neighbor <peer-ip> timers <keepalive> <hold>` to adjust hold-timer to match the peer AS configurations as per the 'BGP Peer Session Down' guide in KB-00001. No need to escalate to other guidance due to the specific reference to BGP issues. No need for API gateway timeouts or corporate DNS resolutions as they are unrelated to the given symptoms.\", \"cited_artifacts\": [\"KB-00001\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 0.5, "step": 200}
|
||||
{"ticket_id": "TRAIN-00049", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"The BGP route leak to the upstream provider causing the internet facing services to be offline since 14:00 is due to a hold-timer mismatch with the peer AS number. On the Cisco router in the VRF, use the command `clear ip bgp neighbors detail <peer-ip>` to ensure there are no ACLs blocking TCP/179 at `source <local-ip>`. For BGP hold timers, adjust the timers with `neighbor <peer-ip> timers <keepalive> <hold>` to ensure the intervals match the hold timer for hold-timer mismatch. Use `debug ip bgp <peer-ip> events` on Cisco for logging to check for `BGP state` and ensure it is either 'Idle (Admin)' or 'BGP state = Active' (no Active state can indicate a BGP peer issue). No need for API gateway troubleshooting or corporate DNS issues as no context was provided for these. No escalations due to clear guidance in the BGP troubleshooting context.\", \"cited_artifacts\": [\"KB-00001\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00049", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the BGP route leak issue, the primary configuration needs correction to match the peer's local AS number and ensure hold-timer mismatch is not the cause. Refer to KB-00001 for troubleshooting: 'Correct hold-timer mismatch with `neighbor <ip> timers <keepalive> <hold>` or clear ACL blocking TCP/179'. No need for escalation as the context provides sufficient guidance to resolve without further resources. No additional steps from the other KBs are relevant to this specific issue.', \"cited_artifacts\": [\"KB-00001\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": false, "r_parsimony": 0.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00049", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"The issue with all internet-facing services offline, suspected BGP route leak to the upstream provider, aligns with the BGP peer session down issue mentioned in KB-00001. For this, we need to correct the hold timer mismatch with the `neighbor <ip> timers <keepalive> <hold>` command or clear the ACL blocking TCP/179. No other specific issues mentioned in the other KBs are relevant to this scenario. Escalation details are not applicable as the context covers this BGP issue clearly.\", \"cited_artifacts\": [\"KB-00001\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 0.5, "step": 200}
|
||||
{"ticket_id": "TRAIN-00049", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the BGP peer session down issue causing the 45-minute partial internet outage, follow these steps: Ensure there is no ACL on both ends blocking TCP/179 by pinging the peer address from the router VRF: `ping vrf MGMT <peer-ip> source <local-ip>`. For AS configuration check, confirm `neighbor <ip> remote-as <AS>` matches the peer's local AS and there is no MD5 password mismatch: `debug ip bgp <peer-ip> events` for Cisco IOS to check for NOTIFICATION messages indicating cease/hold-timer/open-message-error subtypes. No other actions from the provided resources are applicable as they do not match the issue of internal network connectivity problems.\", \"cited_artifacts\": [\"KB-00001\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00049", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the BGP route leak issue causing the internet outage, we need to ensure that the hold timer mismatch is causing the issue. Use `show ip ospf neighbors detail` to confirm the peer state and `show ip ospf neighbors detail` to check the hold timer mismatch with `timer hold` on the peer `neighbor <peer-ip> timers <keepalive> <hold>` command. No need for intervention on the AS and peer configuration since that’s already covered by KB-00001. Escalation step not needed. No other tickets match the issue exactly as reported (INC-0001 is irrelevant to this ticket).\", \"cited_artifacts\": [\"KB-00001\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00013", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"The CrashLoopBackOff issue with the notification-service v1.5.2 deployment is due to an insufficient memory limit in the deployment manifest for one of the pods. Check if the resource limits (resources.limits.memory) are set to less than what the pod is supposed to use. Increase the memory limit in the deployment manifest or find another cause from the given steps like a missing secret or an env var issue. For memory leaks, make sure the limit is not too high as it can lead to high memory consumption and exhaust the pod's memory. No specific issue from the Okta provisioning context can be used for this problem. The DB migration rollback method doesn't apply since there is no migration involved in this issue. No generic API token rotation or Jenkins API token management links directly to the given context. Escalation steps are not applicable here as the context provides direct pointers for memory limit issues.\", \"cited_artifacts\": [\"KB-00017\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00013", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the CrashLoopBackOff issue with the notification-service v1.5.2 in the CrashLoopBackOff state (OOMKilled due to memory limit hit), increase the limits by modifying the deployment YAML to add 'resources.limits.memory: 500Mi'. For memory leaks, check the ConfigMap associated with the app to ensure the YAML is correct and not causing an issue. For other possible reasons, check if there are missing secrets related to environment variables by running `kubectl describe secret <secret-name>` and if the YAML is improperly configured by checking `kubectl describe configmap <configmap-name>`. There are no direct procedures to rollback or apply for the Okta integration or API token configurations from the given context, hence no direct references to these. Escalation is not needed as these are direct applicable steps to fix the CrashLoopBackOff in CrashLoopBackOff state without guessing on other contexts.\", \"cited_artifacts\": [\"KB-00017\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00013", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the CrashLoopBackOff issue in the notification-service v1.5.2 pods, increase the memory limit in the deployment YAML to avoid OOMKilled by adding 'resources.limits.memory: <memory-limit> to limit the resource usage. For configuration or secret issues, check if there are any missing secrets in the namespace using 'kubectl get secret <name>'. No direct rollback procedures or Okta provisioning configuration are available in the provided context. Escalation is not necessary as it does not mention a rollback or Okta provisioning issues.\", \"cited_artifacts\": [\"KB-00017\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 0.5, "step": 200}
|
||||
{"ticket_id": "TRAIN-00013", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the CrashLoopBackOff issue in the notification-service v1.5.2 deployment, the common root cause based on the provided context is an 'OOMKilled' due to the 'resources.limits.memory' set too low in the deployment YAML. Increase the memory limit to address this, e.g., 'resources.limits.memory: 512Mi' in the deployment YAML. No need for rollback or integration setup as these do not fit the provided context. Escalation of the ticket is not applicable as we have direct actionable advice from the CrashLoopBackOff diagnosis.\", \"cited_artifacts\": [\"KB-00017\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 0.5, "step": 200}
|
||||
{"ticket_id": "TRAIN-00013", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the CrashLoopBackOff issue in the notification-service pods, first check if the 'resources.limits.memory' in the Deployment definition is set too low by checking it with `kubectl describe pod <pod>` to see if there are 'OOMKilled' in the Events section, as it suggests an OOMKilled issue due to insufficient memory limit. Look for the secret with `kubectl get secret <name>` in the events to see if the secret is missing and if the secret is present in the namespace. For the liveness probe, ensure it is not set to be too aggressive. Escalation steps are not required as the information suggests non-complex root causes for CrashLoopBackOff. No need to rollback as the context does not detail rollback mechanisms for the deployment or any issues not directly related to CrashLoopBackOff.\", \"cited_artifacts\": [\"KB-00017\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00013", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"The CrashLoopBackOff for the notification-service v1.5.2 deployment is likely due to an 'OOMKilled' issue. Increase the limits for the container memory in the deployment YAML by setting 'resources.limits.memory'. For the memory limit, add 'limits.memory: 512Mi' to the container definition in the deployment. Check if the secret used by the deployment exists in the namespace with 'kubectl get secret <secret-name> -n <namespace>'. The Config error can be ruled out by ensuring there are no env var references or ConfigMap YAML changes in the deployment. No specific rollback mechanism or Okta SCIM related issues are mentioned here, so no rollback procedures or Okta setup examples are applicable to this scenario. Escalation is not suggested as no additional contexts are relevant to these issues.\", \"cited_artifacts\": [\"KB-00017\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00013", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the CrashLoopBackOff issue with the notification-service v1.5.2 deployment in CrashLoopBackOff with resources.limits.memory too low and no memory leak as the direct root cause, we should increase the memory limit for the container to meet the service demands by changing the resources.limits.memory to an appropriate value. For configuration errors, check if there are any ConfigMap entries leading to issues, use kubectl get cm <name> -o yaml to check for ConfigMap setup correctly. No mention of rollback or database migration rollback in the provided context, hence no rollback steps for the deployment rollback issue. Escalation from the provided context is not required for either case as the resource limits and memory management are directly actionable without further steps beyond the provided common root causes for CrashLoopBackOff and there are no context related to rollback or diagnostics for Jenkins or Okta issues given in the retrieved contexts.\", \"cited_artifacts\": [\"KB-00017\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00013", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the CrashLoopBackOff issue with the notification-service v1.5.2 deployment, it seems the issue is due to the 'OOMKilled' condition as the limits for the 'resources.limits.memory' are too low in the deployment config (root cause from the Kube CrashLoopBackOff Root Cause Diagnosis KB-00017). Increase the memory limit in the deployment config and ensure there are no missing secrets (check with Kube Secret KB-00017 if the secret is not present in the namespace). Escalation of this issue to a rollback or other context-related ticket isn't mentioned in the provided information, so we are not able to escalate.\", \"cited_artifacts\": [\"KB-00017\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00007", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the OSPF EXSTART adjacency issue between routers dist-01 and dist-02 due to an MTU mismatch between the two, use the command `ip ospf mtu-ignore` on both interfaces to ensure the MTU values match between the routers. For the area-type mismatch preventing adjacency, ensure both routers agree on the stub/nssa flags by checking `area <id> st` and `show ip ospf` for area flags, making sure both agree on the stub or non-stub area. No specific references from the provided contexts directly address authentication issues, so no additional troubleshooting is suggested for MD5 keys or area-type mismatch based on the given details. No escalation is required as all issues are related to configuration or MTU mismatch.\", \"cited_artifacts\": [\"KB-00002\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00007", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the EXSTART adjacency issue in the OSPF neighbor adjacency between dist-01 and dist-02, the mismatch in MTU is the primary cause, and it can be resolved by ensuring that the MTU between the two routers is the same. Use the `show ip ospf neighbor detail` to verify that the hello/dead intervals between the two routers are identical and that there is no MTU mismatch. You can also use the `ip ospf mtu-ignore` command to bypass MTU checks temporarily if this is an urgent fix and a more permanent solution needs to be sought out through consistent MTU alignment and configuration. There's no mention of area-type mismatch in the context and no relation between SCIM issues or VPN tunnel flapping, so we don't consider those as relevant here. Escalation methods aren't discussed in the context provided.\", \"cited_artifacts\": [\"KB-00002\"], \"confidence\": 0.1, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00007", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the EXSTART adjacency issue between dist-01 and dist-02 due to MTU mismatch on their interfaces, the key steps are to ensure that the MTU on both interfaces are the same for proper DBD packet communication. Use the debug ip ospf adj command to check for MD5 key mismatches and ensure the area flags for areas are aligned between both routers. No need to escalate based on the given context, so no need for additional KBs. Use `ip ospf mtu-ignore` on both interfaces and verify area st or nssa flags in `show ip ospf area <id>` match between them.\", \"cited_artifacts\": [\"KB-00002\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00007", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the EXSTART adjacency issue between dist-01 and dist-02 due to MTU mismatch on the interface, use `show ip ospf neighbor detail` on both routers to check the router-id and hello/dead intervals to ensure they match the MTU settings. Use `ip ospf mtu-ignore` on both interfaces or ensure the MTU settings on both routers are aligned. No need for troubleshooting steps like the ones for the VPN tunnel or DHCP scope issues since the provided contexts only relate to OSPF adjacency states and MTU mismatch are directly stated. Escalation steps are not applicable given the context.\", \"cited_artifacts\": [\"KB-00002\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00007", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the issue of OSPF adjacencies stuck in EXSTART between dist-01 and dist-02 due to a MTU mismatch, adjust the MTU on both the interfaces of the routers to match by using `ip ospf mtu-ignore` on both interfaces of dist-01. No need to escalate as the information is provided in KB-00002 which suggests the MTU mismatch as the root cause. No need for area-type mismatch or authentication error resolution as these are not mentioned in the provided context. Ensure the MTU on the dist-01 router interface is 1500 since the EXSTART state is usually caused by a discrepancy with the MTU on the other router interface. No further context points to alternative fixes like DHCP or Okta SCIM setup.\", \"cited_artifacts\": [\"KB-00002\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00007", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the EXSTART state issue in the OSPF adjacency between dist-01 and dist-02 due to a mismatch in MTU (as per Step 2 in the 'OSPF Neighbor Adjacency Failure Investigation' which states that 'OSPF DBD packets use full MTU. If interface MTU differs between peers, EXSTART gets stuck. Fix: `ip ospf mtu-ignore` on both interfaces, or align MTUs.'), use the following command on both routers: `ip ospf mtu-ignore` to bypass the MTU mismatch issue and align the MTUs between the peers. No need to escalate as there is enough information to handle the MTU issue without referring to other contexts. Escalation to another ticket or resolution may not be possible with the provided details.\", \"cited_artifacts\": [\"KB-00002\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00007", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the EXSTART state issue in the OSPF adjacencies between dist-01 and dist-02 due to an MTU mismatch between the two interfaces, align the MTU on both interfaces by setting `ip ospf mtu-ignore` on both dist-01 and dist-02 interfaces, and ensure the MTU values match on both routers. Additionally, check for an area-type mismatch by ensuring both routers agree on the area flags in `area <id> st` in the `show ip ospf` output. No other steps are required from the provided contexts. \", \"cited_artifacts\": [\"KB-00002\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 0.5, "step": 200}
|
||||
{"ticket_id": "TRAIN-00007", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the EXSTART adjacency stuck state between routers dist-01 and dist-02 due to an MTU mismatch, use the command `ip ospf mtu-ignore` on both interfaces of the routers to align the physical MTU. If the MTU is not a cause, the area-type mismatch could be a factor, but this requires ensuring both routers agree on the stub/nssa flags in `area <id> st` flags in `show ip ospf area <id>` output. No need to escalate to other methods from the provided context as the MTU and area flags match the explanation from KB-00002 for the EXSTART issue.\", \"cited_artifacts\": [\"KB-00002\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00027", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the svc-deploy-prod account issue, the service account must be rotated atomically by updating the new password in CyberArk or HashiCorp Vault before changing in AD. Use the CyberArk/HashiCorp Vault update command with the CyberArk vault command: `vault kv put secret/svc/svc-deploy-prod/password new_password` for the new password. Ensure the CyberArk vault command is used before the AD rotation `Set-ADAccountPassword -Identity svc-deploy-prod -NewPassword (ConvertTo-SecureString 'new-password' -AsPlainText -Force) -Reset` to align with Step 3 from the Service Account Password Rotation Procedure in KB-00012. For Jenkins API token rotation, use the Jenkinsfile and API tokens in a zero-downtime pattern: generate new token, update consumers (one by one or via rolling deployment), and verify token with Jenkins - following API token rotation from KB-00013. No escalation is required as the steps detailed are within the available context.\", \"cited_artifacts\": [\"KB-00012\", \"KB-00013\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00027", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the svc-deploy-prod account locked causing CI/CD failures, follow the Application Deployment Rollback Procedure for the fastest rollback option in Kubernetes (Steps 1 and 2). For password rotation procedures, step 1 involves an impact assessment by checking the svc-account’s dependencies with `Get-ADUser <svc-account> -Properties ServicePrincipalNames,Description` to find all dependent services and search config files for svc-account names using `grep -r '<service-account-name>' /etc/`. For service account password rotation, ensure it’s done every 90 days and update in CyberArk/HarshiCorp Vault before AD (Step 3), then update dependent services in order (Steps 4 for Windows and IIS, and Steps 3 for scheduled tasks). No direct actions like API token rotation or Jenkins API token management are mentioned directly for the svc-deploy-prod issue from the given context. Escalation is not suggested by the available context, so these steps should help resolve the svc-deploy-prod lockup issue in the context of a deployment account for a CI/CD pipeline.\", \"cited_artifacts\": [\"KB-00012\", \"KB-00020\"], \"confidence\": 0.1, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00027", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the svc-deploy-prod account lockout, escalate to use the K8s service account password rotation procedure from KB-00012, updating the new password in CyberArk or HashiCorp Vault before changing in AD to ensure atomic rotation and independence from downstream services. For Jenkins API token and personal access token rotation with no downtime, refer to the API token rotation from KB-00013 by generating new tokens for the svc-k8s-deploy, updating all consumers sequentially, and checking no downtime with zero-downtime rotation pattern of steps 1, 2, and 3 respectively. No direct rollback or application deployment rollback procedures are mentioned within the provided contexts for the svc-deploy-prod lockout, hence no specific actions are suggested for the deployment pipeline failure.\", \"cited_artifacts\": [\"KB-00012\", \"KB-00013\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00027", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the svc-deploy-prod account being locked in Jenkins due to password rotation, follow the Service Account Password Rotation Procedure from KB-00012. Before rotation, identify all dependencies by using: `Get-ADUser <svc-account> -Properties ServicePrincipalNames,Description` to check for dependent services in the environment. For the rotation itself, update the password in CyberArk / HashiCorp Vault first with `Update the new password in CyberArk / HashiCorp Vault BEFORE changing it in AD with `Set-ADAccountPassword -Identity <svc-account> -NewPassword (ConvertTo-SecureString '<new-password>' -AsPlainText -Force) -Reset`. For service account updates in AD, ensure it’s done atomically before the Vault update. There is no need for Jenkins API token management or rollback procedures here as per the given context. Escalation is not applicable in the context provided.\", \"cited_artifacts\": [\"KB-00012\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00027", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the svc-deploy-prod account lock issue in the service account for svc-k8s-deploy leading to CI/CD failures, it suggests an Active Directory lockout due to an incoordinated password rotation over 90 days, breaking the dependent services. Use the password rotation procedure in KB-00012 and API token rotation in KB-00013, but consider API token changes are not relevant to the AD account lockout. For svc-deploy-prod, the critical steps are updating the new password in CyberArk or HashiCorp Vault before changing in AD and updating dependent services in PAM vault in CyberArk or HashiCorp Vault first for security atomicity. Escalation of this issue with the given context is unclear but a clear plan is provided for AD account lockout from a different context.\", \"cited_artifacts\": [\"KB-00012\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00027", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the svc-k8s-deploy account lock-up causing CI/CD failures due to improper rotation procedure, follow the steps from the Service Account Password Rotation Procedure (KB-00012): Step 1 — Impact assessment: Identify all dependencies for the svc-k8s-deploy by running `Get-ADUser svc-k8s-deploy -Properties ServicePrincipalNames,Description` to check the Description for a list of dependent services and search config files with `grep -r 'svc-k8s-deploy-name' /etc/`. Step 2 — Update in CyberArk / HashiCorp Vault first: Update the new password in CyberArk / HashiCorp Vault before changing in AD with the command `Set-ADAccountPassword -Identity svc-k8s-deploy -NewPassword (ConvertTo-SecureString 'new-password' -AsPlainText -Force) -Reset`. Step 3 — Rotate in AD: Run `Set-ADAccountPassword -Identity svc-k8s-deploy -NewPassword (ConvertTo-SecureString 'new-password' -AsPlainText -Force) -Reset` and for Step 4 — Update dependent services, use the service principal names and restart the specific windows services and app pools as mentioned in the command `sc config <service> password= new-password` and restart the service, set the app pool identity in IIS application pools and update the scheduled task identity in TA. Escalation is not required as all the information needed for this resolution is available in the provided context, therefore no escalation path is needed.\", \"cited_artifacts\": [\"KB-00012\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00027", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the svc-deploy-prod account locked issue, we can rotate the account's password in CyberArk / HashiCorp Vault before changing it in Active Directory (AD) following the Service Account Password Rotation Procedure: Before rotating the svc-deploy-prod account password (Step 1), we need to identify all dependent services using the 'Get-ADUser <svc-account> -Properties ServicePrincipalNames,Description' in PowerShell to list dependent services and check the service description for related configurations (Step 1). Before changing the password in AD, we use the command 'Set-ADAccountPassword -Identity <svc-account> -NewPassword (ConvertTo-SecureString '<new-password>' -AsPlainText -Force) -Reset' in PowerShell to update the new password in CyberArk / HashiCorp Vault and CyberArk Vault (Step 2). Then, to update dependent services atomically, we configure Windows service identity with 'sc config <service> password= <new-password>' and restart the service, and adjust IIS Application Pool settings in IIS Manager to use the new password (Step 3). No need for rollback procedures as no specific rollback procedure is mentioned in the provided context.\", \"cited_artifacts\": [\"KB-00012\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00027", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the svc-deploy-prod account locked issue due to the rotation window, we need to follow the service account password rotation procedure for atomic updates in CyberArk or HashiCorp Vault, and update dependent services in a specific order. Before rotating the password in CyberArk or HashiCorp Vault, update the new password in the CyberArk or HashiCorp Vault atomically using the command: 'vault kv put secret/svc/<svc-account>/password value=<new-password>'. Then for the Windows service, use: 'sc config <svc-deploy-prod> password=<new-password>'. For IIS Application Pool, go to IIS Manager > App Pools > Advanced Settings > Identity and set the new password. Do not use 'Get-ADUser' for dependencies as it does not relate to the ticket. There are no direct issues from AD authentication failures or Jenkins API token rotations mentioned in the provided context. Escalation steps are not applicable as the ticket is purely based on the password rotation procedure provided.\", \"cited_artifacts\": [\"KB-00012\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00043", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the Entra ID Conditional Access policy blocking external contractors due to the use of personal laptops that cannot be enrolled in Intune, there’s no direct runbook in the provided context that directly addresses the Entra Conditional Access policy scenario. However, given that Conditional Access policies relate to Azure AD authentication and device compliance, it could be a tie to Active Directory Authentication Failures (KB-00008). The personal laptop’s device compliance in Conditional Access can be indirectly related to the OS version and admin settings for the device. There’s no runbook for the specific Conditional Access policy that requires a compliant device for personal laptops. Escalation to runbooks or detailed steps specific to Entra Conditional Access policies cannot be derived from the provided context. Escalation cannot be handled given the context constraints.\", \"cited_artifacts\": [\"KB-00008\"], \"confidence\": 0.0, \"escalate\": true}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00043", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the Entra ID Conditional Access policy blocking external contractors on a personal EU-based laptop due to a Conditional Access policy requiring a compliant device (non-Enrollable in Intune), there's no specific runbook or direct fix provided in the given context. However, for Conditional Access policy blocking on a device that isn't enrolled, we might look at the root of device compliance check in Entra through policies or audited data, or monitoring the policies and events through the Entra portal. The Azure AD policy checks for device compliance require seeking more information specific to conditional access policies and device compliance, which is not covered by the given context. Escalation is not necessary here, as the provided runbooks cover Azure AD policy and authentication failures but not specific Conditional Access policy for devices. No reference or direct citation from the provided context.\", \"cited_artifacts\": [], \"confidence\": 0.0, \"escalate\": true}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00043", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For Entra ID Conditional Access policy blocking external contractors on a new EU GDPR laptop due to a required compliant device which cannot be enrolled in Intune, there isn't any direct runbook provided in the context that can resolve this. However, the Context for Conditional Access, Okta MFA reset, and Active Directory Authentication Failures can be leveraged to mitigate some of the issues such as MFA reset for Okta and checking AD authentication status. No clear pathway is suggested by the context to the Conditional Access policy directly except MFA reset which is not applicable as it doesn't help in conditional access. We need additional context or a runbook for Conditional Access specifically without detailed steps for this. Escalation is not required as clear runbooks for Conditional Access are not provided.\", \"cited_artifacts\": [\"\"], \"confidence\": 0.0, \"escalate\": true}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00043", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the Entra ID Conditional Access policy blocking external contractors due to a compliant device requirement when using personal laptops without Intune enrollment, there is no direct runbook in the provided context that directly addresses this requirement. However, given that Entra is using Azure AD for Conditional Access and the policy might be a combination of Azure AD policies and Device compliance, we need to explore the Azure AD policies and the Device compliance settings. Since there is no specific Azure AD runbook given, we can suggest creating an Azure AD conditional access policy with 'Device compliance' using the Azure portal or PowerShell. No specific runbooks or procedures from the provided contexts can be applied directly, so we must escalate to an expert-runbook or policy setup guide. No runbooks in the provided context can address this limitation.\", \"cited_artifacts\": [], \"confidence\": 0.0, \"escalate\": true}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00043", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the Entra ID Conditional Access policy issue with external contractors due to a compliant device requirement on personal laptops not enrolled in Intune, there’s no specific runbook or concrete steps provided in the context to address the device compliance check or Intune non-enrollment directly. Hence, we cannot directly resolve this issue from the provided runbooks. Escalation to Okta or Azure portal reset for MFA error recovery or Active Directory issues is not directly linked either. No actionable runbook is found to fit this scenario from the provided contexts.\", \"cited_artifacts\": [], \"confidence\": 0.0, \"escalate\": true}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00043", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For Entra ID Conditional Access blocking external EU GDPR laptop policy due to a compliant device requirement and non-Enrollable personal laptops in Intune, there is no direct runbook in the provided context. However, we can suggest an approach for the Azure AD / Entra MFA reset as a workaround for the policy block. Use the Azure Portal for Entra MFA reset by navigating to Users > Select user > Authentication methods > Require re-register MFA or via PowerShell: `Set-MgUserAuthenticationRequirement -UserId <objectId> -PerUserMfaState Disabled`. This bypasses the current device compliance requirement. No direct runbook or fixes for the Intune Enrollable issue is provided. Escalation to other runbooks or tools is advised for personalized Enrollable device policy compliance.\", \"cited_artifacts\": [\"KB-00008\"], \"confidence\": 0.1, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00043", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the Entra ID Conditional Access policy blocking external contractors due to a compliant device requirement with personal non-Enrollable laptops in the EU GDPR policy, there is no direct runbook from the provided contexts. However, to understand if this is related to an Entra MFA blocking or an authentication issue, we can look for a workaround or runbook that might exist in general but not specifically mentioned here. The MFA reset procedure in KB-00011 is more about user authentication status but not directly on conditional access policies. Thus, we conclude there isn't a direct fix available in the provided runbooks. Escalation cannot be executed based on the given information.\", \"cited_artifacts\": [], \"confidence\": 0.0, \"escalate\": true}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00043", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the Entra ID Conditional Access policy blocking external EU-based contractors due to a non-Enrollable compliant device (laptop), we can utilize the Okta Admin Console procedure for MFA reset to ensure the Okta side isn’t the issue. Go to the Okta Admin Console > Directory > People, search for the contractor’s email, and click the user to reset the MFA. For the blocking of a non-Enrollable device, there is no direct runbook provided in the given context, and the Okta MFA reset procedure and the runbooks for Conditional Access are from Okta and Azure AD, respectively, and not from Entra MFA or Azure AD by Entra, so we can’t provide a direct runbook. We can escalate to Okta Okta Admin Console steps as it’s a step towards IT support for Okta Okta MFA reset from Okta Admin console. No other runbook or detail is provided in the given context for Conditional Access with Enrollable device blocked policy on Entra ID for external contractor for non-Enrollable device scenario.\", \"cited_artifacts\": [\"Okta MFA reset\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00020", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the OSPF adjacency issues on RTR-BRANCH-05, the MTU mismatch between the interfaces of the two routers is the most common cause. Check the MTU configuration on both interfaces of RTR-BRANCH-05 and ensure they match the MTU of the peer router using the `show ip ospf neighbor detail` command to identify the stuck state. For mismatched area types, ensure both routers agree on the area flags in the `show ip ospf` output to be consistent. No direct issues from AS numbers, authentication, or any of the other protocols mentioned like BGP or DHCP were found in the context, hence no need for BGP peer session down resolution or DHCP scope exhaustion remedies. Escalation tools are not suggested based on the given context.\", \"cited_artifacts\": [\"KB-00002\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00020", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the issue with the OSPF route to 10.20.0.0/16 missing, we need to look at the neighbor adjacency failure and MTU mismatch as the common causes due to the neighbor adjacency states and MTU difference between interfaces. Using the `show ip ospf neighbor` command, we can check the neighbor adjacency states and ensure it is not stuck in INIT or 2-WAY. To address the MTU issue, ensure both interfaces on RTR-BRANCH-05 are configured to have the same MTU by checking `show ip ospf neighbor detail` and aligning it with the MTU of the neighbor router. No specific BGP hold-time and hold-timer mismatch or hold-timer state checks are needed here as mentioned in the OSPF neighbor adjacency failure guide. No mention of DHCP scope exhaustion or tunnel flapping in the context. Escalation not required as detailed guides are available for the common issues.\",\"cited_artifacts\": [\"KB-00002\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00020", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the issue with the OSPF route to 10.20.0.0/16 missing from the RTR-BRANCH-05 routing table due to an area-type mismatch, ensure that both routers agree on the stub/nssa flags in `area <id> st`. Use `show ip ospf` to check the area flags. For MTU mismatch, ensure the MTU on both interfaces is the same and if different, adjust it by using `ip ospf mtu-ignore`. No immediate fix for the MTU mismatch can be inferred from the provided context for this issue directly. No fix for the area-type mismatch can be given without context on the specific area numbers used in the `show ip ospf` command. Escalation context is not present for this scenario.\", \"cited_artifacts\": [\"KB-00002\"], \"confidence\": 0.25, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00020", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the issue where OSPF routes to the 10.20.0.0/16 network are missing from RTR-BRANCH-05's routing table after the router replacement, the area mismatch and MTU mismatch need to be addressed. Check for area mismatch by ensuring both routers agree on the area flags using `show ip ospf` and making sure the area flags for both are consistent with `area <id> st`. For MTU mismatch, ensure the physical MTU on both interfaces of the routers are aligned or add `ip ospf mtu-ignore` to the command and also check if the hello/dead intervals match between the routers. No information is provided about MD5 key mismatch, hold-timer mismatch, or DHCP exhaustion. No need for escalation as the given context covers the MTU mismatch and area mismatch explicitly.\", \"cited_artifacts\": [\"KB-00002\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00020", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the OSPF neighbor adjacency stuck in INIT state on RTR-BRANCH-05, use the `show ip ospf neighbor detail` command to identify the state and if stuck in INIT, check if the hello/dead interval and subnet mask match the peer’s. For MTU mismatch leading to EXSTART/EXCHANGE states, ensure the MTU on both interfaces are the same or add `ip ospf mtu-ignore` on the interfaces of both routers. No direct fixes for the area-type mismatch are provided in the given context. There’s no clear path for MTU or area-type mismatch area check without an exact command or clear reference to area settings check. No mention of authentication problems in the given context. Escalation is not applicable as the context provides steps but no plugin to escalate fixes. No specific on BGP peer session down or DHCP scope exhaustion are addressed in the context.\", \"cited_artifacts\": [\"KB-00002\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00020", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the router RTR-BRANCH-05 not routing OSPF to 10.20.0.0/16 due to an MTU mismatch, the MTU on the interface must match the neighbor router’s. Use `show ip ospf neighbor` to check if the router is in INIT state and `show ip ospf neighbor detail` for current adjacency states. If it's in INIT state, ensure the subnet mask and hello/dead interval match the peer’s. For area mismatch, ensure that both routers agree on the area type in `show ip ospf`. For MTU, align the MTU on the interface of the peer router and router RTR-BRANCH-05 by ensuring their MTU values are equal. Escalation is not needed for the given information.\", \"cited_artifacts\": [\"KB-00002\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00020", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the issue where the OSPF route to 10.20.0.0/16 is missing on the RTR-BRANCH-05, check the adjacency states using `show ip ospf neighbor detail` to see if the router is stuck in INIT or 2-WAY state. For an MTU mismatch, ensure the MTU matches between the two routers and the neighbor hello/dead intervals are set correctly on the new router interfaces. Use `show ip ospf neighbor detail` to confirm the MTU and adjust the hello/dead intervals by running `show ip ospf neighbors detail` and ensuring neighbor hello/dead is the same as the MTU. No information on area mismatch or authentication issues was found directly in the given contexts, so do not focus on that aspect. Escalation is not applicable here as the contexts provide steps for MTU and adjacency states that should solve the problem with the given data.\", \"cited_artifacts\": [\"KB-00002\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00020", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the issue with OSPF neighbors stuck in the EXSTART/EXCHANGE state due to an MTU mismatch, the fix is to ensure the MTU of the interface on the RTR-BRANCH-05 is the same as the neighbor router's MTU. Use the `show ip ospf neighbor` command to see if the neighbor is in the INIT state and not receiving hello packets from the opposite end. If MTU differs, use the `ip ospf mtu-ignore` on both interfaces to align the MTU or adjust the `ip ospf mtu-ignore` command to match the neighbor MTU on both routers. For area type mismatch, ensure both routers agree on the area flags in the `show ip ospf` command, where both routers have the area settings as `area <id> non-stub`. No direct reference to area type mismatch in the provided context, so we don't need to check for it based on this data.\", \"cited_artifacts\": [\"KB-00002\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00015", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the analytics-service OOM crashing every 4-6 hours with heap exhaustion under the ModelCacheManager, add the JVM heap dump auto generation by setting -XX:+HeapDumpOnOutOfMemoryError -XX:HeapDumpPath=/var/log/heapdumps/ -XX:+ExitOnOutOfMemoryError in the JVM arguments to ensure timely heap dumps are captured. For Guava Cache or Caffeine cache issues causing heap bloat, ensure that Guava Cache uses `maximumSize` and Caffeine Cache adheres to similar constraints with max elements. No direct solution from the provided context addresses connection pool exhaustion or Kubernetes issues. Escalation beyond the given context isn’t possible. Thus, the steps for heap exhaustion and Guava Caches are applied directly. No concrete guidance from the extracted logs for connection pool exhaustion or Kubernetes from given steps.\", \"cited_artifacts\": [\"KB-00015\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00015", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the analytics-service OOM crash, we need to address the heap size issue by adding `-XX:+HeapDumpOnOutOfMemoryError -XX:HeapDumpPath=/var/log/heapdumps/ -XX:+ExitOnOutOfMemoryError` to the service startup JVM arguments to enable automatic heap dump and fix the Guava Cache or Caffeine without `maximumSize` configured as an unbounded cache. For the heap dump analysis, use `jmap -dump:format=b,file=/tmp/heap_$(date +%s).hprof <pid>` to generate a heap dump on the running service, and analyze it using Eclipse MAT. No specific issues related to Database connection pool exhaustion or Kubernetes Pod CrashLoopBackOff are directly applicable in this scenario. Escalation or other services are not involved. Thus, no additional resources from the provided context are necessary for the DB connection pool exhaustion or Kubernetes issues.\", \"cited_artifacts\": [\"KB-00015\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00015", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the analytics-service OOM crashing with heap dumps showing large arrays under ModelCacheManager, and given the recent addition of a new ML model feature that pre-loads embeddings, we need to address the Guava Cache without a `maximumSize` configured which leads to heap exhaustion. Add the JVM flags `-XX:+HeapDumpOnOutOfMemoryError -XX:HeapDumpPath=/var/log/heapdumps/ -XX:+ExitOnOutOfMemoryError` to the service startup script. For the ModelCacheManager issue, there's no direct correlation in the retrieved context with Guava Cache use or ModelCacheManager heap issues but tracking the Guava Cache is advised. No other context provided for the heap issues and OOM from session object or database connection pool exhaustion. Escalation is not needed as no specific steps from the other context fit the heap issues.\", \"cited_artifacts\": [\"KB-00015\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00015", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the analytics-service OOM crashing every few hours due to large arrays in ModelCacheManager under Guava Cache without configuring maximumSize and session object cache bloat, we should use KB-00015 for the heap dump analysis with the flags -XX:+HeapDumpOnOutOfMemoryError -XX:HeapDumpPath=/var/log/heapdumps/ and -XX:+ExitOnOutOfMemoryError for production monitoring, and KB-00015 for the heap analysis to find the problem suspect by using the Eclipse MAT tool with steps 1 to 4 for the heap dump and 2 to 4 for the metaspace exhaustion. For the OOM crash in the service, there is no direct reference in the given context, but we can prevent the crash by increasing the limits on the service or by avoiding Guava Cache unbounded default by setting maximumSize, and for session object cache, it’s advised to manage the Guava Cache size. No mention of the hikaricp connections pool exhaustion hence no direct reference from the provided contexts. Escalation to direct fix for hikaricp connections pool exhaustion or crashloopbackoff directly isn’t applicable from the above contexts.\", \"cited_artifacts\": [\"KB-00015\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00015", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the analytics-service OOM crashing due to Guava Cache or Caffeine without the `maximumSize` configuration leading to heap exhaustion, you can enable heap dump on OOM by adding `-XX:+HeapDumpOnOutOfMemoryError -XX:HeapDumpPath=/var/log/heapdumps/ -XX:+ExitOnOutOfMemoryError` to the JVM arguments and save the heap dump using `jmap -dump:format=b,file=/tmp/heap_$(date +%s).hprof <pid>` for analysis. For the ModelCacheManager leading to large byte[] arrays in the heap, ensure that the `ModelCacheManager` does not use unbounded caches like Guava Cache or Caffeine. No direct escalation or further context from the provided KBs are required. Escalation check: no escalate needed.\", \"cited_artifacts\": [\"KB-00015\"], \"confidence\": 0.4, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00015", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the analytics-service OOM crashing with the heap exhaustion and the ModelCacheManager holding large byte[] arrays, the JVM heap dump should be enabled to diagnose the heap exhaustion issue. Use the flag `-XX:+HeapDumpOnOutOfMemoryError -XX:HeapDumpPath=/var/log/heapdumps/ -XX:+ExitOnOutOfMemoryError` to ensure the heap dump is captured on the OOM and `-XX:MaxHeapSize=512m` to avoid heap bloat from Guava Cache or Caffeine without a `maximumSize` limit. For the ModelCacheManager issue with large byte[] arrays, it points towards String interning or cache bloat which is a common cause of heap exhaustion, hence it does not directly relate to a connection pool or Kubernetes crash, but rather needs to ensure the caching framework usage is properly managed. No direct resolution from the given DB connection pool exhaustion context applies directly here. Escalation of these tickets require focusing on the JVM heap management and Guava Cache configuration with the heapdump setting.\", \"cited_artifacts\": [\"KB-00015\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00015", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"The analytics service is encountering an OutOfMemory (OOM) crash due to Guava Cache or Caffeine cache bloat, which is not related to the DB connection pool exhaustion or Kubernetes crashLoopBackOff. Increase or set the maximum size for the Guava Cache or Caffeine cache with -XX:MaxHeapSize or maximumSize configurations in the JVM startup options (e.g., -Xmx768m for 750MB heap). For Guava Cache, use guava.cache.maximumSize(500); for Caffeine cache, set maximumSize(500L). To manage heap dumps, ensure the JVM options are set to: -XX:+HeapDumpOnOutOfMemoryError -XX:HeapDumpPath=/path/to/heapdump/ -XX:HeapDumpFullProcessThreshold=1. For heap dump analysis, use jmap: jmap -dump:format=b,file=/tmp/heap_$(date +%s).hprof <pid> and use Eclipse MAT for analyzing the heap dumps to detect if there are large byte[] or char[] arrays under Guava Cache or Caffeine Cache bloat.\", \"cited_artifacts\": [\"KB-00015\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00015", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the analytics-service OOM crashing every 4-6 hours due to a large ModelCacheManager heap issue under the Guava Cache or Caffeine unbounded cache (common cause of heap exhaustion with Guava Cache or Caffeine not having a 'maximumSize' configured) and the embeddings feature that pre-loads them leading to excessive memory consumption, add the following to the JVM startup: `-XX:+HeapDumpOnOutOfMemoryError -XX:HeapDumpPath=/var/log/heapdumps/ -XX:+ExitOnOutOfMemoryError` for heap dump analysis and monitoring. Use `jmap -dump:format=b,file=/tmp/heap_$(date +%s).hprof <pid>` to capture heap dump on running process and `Eclipse MAT` for the heap dump analysis to find the dominator tree and identify the 'Problem Suspect' with the largest retained heap, likely pointing to the Guava Cache issue. No issues are reported for the DB connection pool or Kubernetes crash loops from the provided context, hence no need to tackle those. No direct reference to resolving K8s pod crashloopbackoff or DB pool exhaustion is in the given context. Escalation not required.\", \"cited_artifacts\": [\"KB-00015\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00035", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the issue of platform-wide degradation with 504 timeouts, OOM in Java heap, and Redis eviction causing pod crashes, the root cause for the API Gateway timeout is that the upstream service is not handling DB query responses within the configured timeout, which is about 60000ms in Kong configuration. The pod crashes due to the container memory limit 'resources.limits.memory' of 1GB being too low for the application. Increasing it to 2GB or setting 'resources.limits.memory' to a specific memory size can resolve this. For OOM in Java, adjust the heap size or set 'maximumSize' in Guava Cache or Caffeine. Redis eviction should be set to 'allkeys-lru' or 'allkeys-random' to avoid cache eviction based on a usage metric and reducing eviction for keys without TTL. No direct references to rollback procedures or DB migration rollback procedures for immediate platform recovery are provided in the context provided.\", \"cited_artifacts\": [\"KB-00017\", \"KB-00015\", \"KB-00018\", \"KB-00019\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00035", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the 504 Gateway Timeout issue, check the upstream service response times in the API gateway logs and ensure that the slow queries in the upstream service are not the cause by analyzing the explain plan of the slow queries using 'EXPLAIN ANALYZE' in PostgreSQL for relevant slow queries. For the 6 pods in CrashLoopBackOff, increase the memory limit by checking the limits in the yaml of the deployment and fixing the memory leak or adding more memory limits to the CR. For the Redis eviction issues, ensure the Redis eviction policy is 'allkeys-lru' and the maxmemory is set to avoid high memory use and keys without ttl. No specific rollback steps are provided for the Kubernetes crash loop and API gateway timeout issues from the given context. Escalation to the support ticket is suggested with specific steps from the provided documents.\", \"cited_artifacts\": [\"KB-00017\", \"KB-00018\", \"KB-00016\", \"KB-00019\", \"KB-00015\"], \"confidence\": 0.4, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00035", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the api-gateway timeout issue, adjust the timeout configuration by setting `proxy_read_timeout 60000` in the Kong config file to increase the gateway timeout threshold to 60 seconds. For the Redis eviction and cache miss issues, set the maxmemory in Redis config to 2GB and ensure `maxmemory-policy` is set to 'allkeys-lru' for redis. For the memory OOM in the JVM, add heap dump analysis to the JVM options and use -XX:+HeapDumpOnOutOfMemoryError -XX:HeapDumpPath=/var/log/heapdumps/. For the CrashLoopBackOff from the Kubernetes, check the memory limit in the limits field of the deployment YAML and increase it if it is too low (resources.limits.memory) or ensure no secret is missing with 'kubectl get secret <name>' in the namespace. No specific rollback procedure or database migration rollback strategies are given in the provided context but for a quick solution to the OOM in the JVM and eviction in Redis and timeout in API Gateway can be configured as mentioned above with no specific rollback needed due to the context\", \"cited_artifacts\": [\"KB-00015\", \"KB-00017\", \"KB-00018\", \"KB-00016\", \"KB-00019\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00035", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the platform-wide issue with the 504s from the API Gateway, we need to bypass the Gateway timeout by checking the upstream service directly and ensuring the Thread pool exhaustion isn’t the issue by looking at the connection pool status in Prometheus/Grafana for Redis eviction issues. For pod CrashLoopBackOff, increase the memory limit for the containers that are OOMKilled by ensuring the 'resources.limits.memory' is appropriate and ensure there are no missing secrets or config errors in the YAML files. For Redis eviction, ensure maxmemory is not being exceeded in Redis settings and add Spring Session cleanup cron in the application properties to avoid session keys storing data forever. No direct rollback steps or database migration rollback in the retrieved context can be used due to the lack of related steps. No escalation context present in the retrieved context.\", \"cited_artifacts\": [\"KB-00015\", \"KB-00016\", \"KB-00017\", \"KB-00018\", \"KB-00019\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00035", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the platform-wide degradation with 504s from the API Gateway, 6 pods in CrashLoopBackOff, and Redis eviction issues, the API Gateway timeout can be resolved by ensuring the upstream service is not waiting on a thread pool exhaustion (adjusting Kong proxy_read_timeout as per KB-00018). For the Redis eviction and cache issues, the eviction policy should be adjusted to 'allkeys-lru' (KB-00019). For the heap OOM in the Java application, add the heap dump monitoring in the JVM with the command `jmap -dump:format=b,file=/tmp/heap_$(date +%s).hprof <pid>` and enable Guava Cache or Caffeine with `maximumSize` (if session keys do not have TTL and are stored forever). No specific rollback procedures from the retrieved context, but for the CrashLoopBackOff, ensuring the limit for resources.limits.memory is not too low and checking if there are any missing secrets or bad YAML (KB-00017) may help. Escalation procedures are not applicable as the context does not lead to that.\", \"cited_artifacts\": [\"KB-00017\", \"KB-00018\", \"KB-00019\", \"KB-00015\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00035", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the platform-wide degradation due to 504 errors, pod crashes, and Redis OOM, we focus on Kubernetes pod crashes by increasing the memory limit for the CrashLoopBackOff issue using Step 3 from KB-00017, which advises to increase the memory limit for the limit of 'resources.limits.memory'. For Redis OOM, configure Redis eviction policies to prevent eviction by setting the eviction policy to 'allkeys-lru' and scaling up Redis memory limits, following steps from KB-00019. For the API Gateway 504 timeouts, check that the timeout for the proxy is not too low by setting `proxy_read_timeout` in KB-00018 and ensuring the upstream service isn't causing timeouts or pool exhaustion. No rollback steps are available from the provided contexts.\", \"cited_artifacts\": [\"KB-00017\", \"KB-00019\", \"KB-00018\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00035", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the platform-wide issue with 504 errors from the API Gateway, the pods in CrashLoopBackOff, and Redis eviction causing OOM, follow these steps: For the 504 timeout issues, use KB-00018’s step 1 to identify the slow upstream by checking the upstream response time from KONG log: `grep 504 /var/log/kong/access.log | awk '{print $7, $9}' | sort -n`. For the Redis eviction causing OOM, use KB-00019’s steps to find the eviction policy in Redis: `redis-cli CONFIG GET maxmemory-policy` for policy and `redis-cli CONFIG SET maxmemory 700mb` for scaling down Redis memory. For the pod CrashLoopBackOff, use KB-00017’s step 1 to get crash logs: `kubectl logs <pod> --previous` and step 2 to check the events: `kubectl describe pod <pod>`. For the OOM in the application, enable heap dump on the JVM: add `-XX:+HeapDumpOnOutOfMemoryError -XX:HeapDumpPath=/var/log/heapdumps/ -XX:HeapDumpFullThreshold=1 -XX:HeapDumpPath=/tmp/heapdump` in the JVM parameters and use `jmap -dump:format=b,file=/tmp/heap_$(date +%s).hprof <pid>` to capture heap dump. No specific rollback procedures are found from the given context.\", \"cited_artifacts\": [\"KB-00017\", \"KB-00018\", \"KB-00019\", \"KB-00015\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00035", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the platform-wide issue with 504s, pod crashes in CrashLoopBackOff, and Redis eviction issues, follow these steps: For the pod CrashLoopBackOff, increase the memory limit using `limits.memory` (e.g., 'limits.memory': \"128Mi\") in the deployment YAML and avoid hitting the memory limit by fixing memory leak or increasing the memory limits. For the API Gateway 504 timeout, adjust the timeout configuration in the API Gateway proxy settings (e.g., in the Kubernetes configmap or deployment YAML to add `proxy_read_timeout 60000`). For the Redis eviction issue, add `maxmemory`: 600mb to the redis config and use the eviction policy as 'allkeys-lru' with a Spring Session cleanup configuration 'spring.session.redis.cleanup-cron=0 * * * * *' to avoid unbounded caches like Guava Cache or Caffeine. No specific rollback or DB migration rollback procedures are provided for the given context, thus no rollback steps are applied here. Escalation beyond the given context isn't apparent.\", \"cited_artifacts\": [\"KB-00017\", \"KB-00018\", \"KB-00016\", \"KB-00019\", \"KB-00015\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": false, "r_parsimony": 0.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00002", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the APIPA addresses (169.254.x.x) experienced by users on VLAN 40 (10.40.0.0/24), the DHCP scope exhaustion is the root cause. Use the KB-00006 entry for an emergency fix by using the command `show ip dhcp pool` to confirm utilization and if it’s above 95%, use `clear ip dhcp binding *` to force a DHCP refresh for the network in maintenance window. No need to escalate as the above context provides an immediate mitigation option under the DHCP scope exhaustion section. No service account passwords or SAML issues are involved here according to the provided context.\", \"cited_artifacts\": [\"KB-00006\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00002", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the APIPA addresses issue on VLAN 40 (10.40.0.0/24) on floor 4, the DHCP scope exhaustion is the primary issue as it leads to clients receiving APIPA addresses. According to KB-00006, we need to mitigate this by reducing the lease time from 8 days to 1 day using the command `ip dhcp pool CORP_WIFI / lease 1`. Also, we can clear specific stale entries using the `clear ip dhcp binding <specific-ip>` command if we have a list of specific entries to clear, which is not provided in the retrieved context. No specific steps are provided to prevent this, hence we need to ensure no other factors (like peer DHCP servers or the configured lease time) are at play. No escalatory steps are required given the context.\", \"cited_artifacts\": [\"KB-00006\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00002", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the APIPA addresses issue on the 10.40.0.0/24 VLAN, the DHCP scope exhaustion recovery can be applied immediately to solve the problem by using the 'DHCP Scope Exhaustion' emergency recovery method from KB-00006. Use the command `show ip dhcp pool` to confirm that the utilization is >95%, if yes, use `clear ip dhcp binding *` to clear all DHCP bindings across all DHCP pools to prevent exhaustion. Alternatively, if only a specific lease pool is full, use `clear ip dhcp binding *` in a specific DHCP pool or `clear ip dhcp binding <specific-ip>` for targeted stale entries. No need for escalating to another procedure or tool as the context is sufficient for both APIPA and SAML configurations but fits our problem with DHCP exhaustion only. No IDs from other KBs are needed for this resolution.\", \"cited_artifacts\": [\"KB-00006\"], \"confidence\": 0.4, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00002", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the issue with users on VLAN 40 (10.40.0.0/24) getting APIPA addresses (169.254.x.x), we need to resolve the DHCP scope exhaustion preventing new devices from getting IP addresses. Use the command `show ip dhcp pool` to confirm the utilization. If utilization > 95%, use the command `clear ip dhcp binding *` to clear all binding with an appropriate maintenance window or `clear ip dhcp binding <specific-ip>` for targeted stale entries. No need for any credentials or SAML 2.0 configuration as the mentioned contexts are irrelevant to the APIPA problem on VLAN 40. No MFA or Okta SSO configuration problem since there is no context for these in the provided information. Escalation not required as we have a direct fix from the DHCP scope exhaustion context.\", \"cited_artifacts\": [\"KB-00006\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00002", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the APIPA issue on the 10.40.0.0/24 network, since DHCP scope exhaustion is causing this, follow the permanent fix option from KB-00006: Reduce the lease time from 8 days to 1 day using the command `ip dhcp pool CORP_WIFI / lease 1`. Monitor the DHCP utilization with `show ip dhcp pool` to ensure it does not exceed 95% to prevent exhaustion. No further actions from other contexts are applicable for this issue.\", \"cited_artifacts\": [\"KB-00006\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 0.5, "step": 200}
|
||||
{"ticket_id": "TRAIN-00002", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the DHCP scope exhaustion issue on the 10.40.0.0/24 VLAN leading to APIPA addresses (169.254.x.x), follow the emergency recovery steps from KB-00006. Use `show ip dhcp pool` to confirm utilization. If it’s >95%, use `clear ip dhcp binding *` to force a global DHCP lease refresh. If there are specific stale entries, use `clear ip dhcp binding <specific-ip>` for targeting. No escalation to alternative measures is needed as the context provided directly corresponds to a resolution strategy for DHCP scope exhaustion. \", \"cited_artifacts\": [\"KB-00006\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 0.5, "step": 200}
|
||||
{"ticket_id": "TRAIN-00002", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the DHCP scope exhaustion on VLAN 40 (10.40.0.0/24) leading to APIPA addresses (169.254.x.x), use the emergency recovery workaround mentioned in KB-00006. Use the command `show ip dhcp pool` to confirm utilization and if >95% utilization, use `clear ip dhcp binding *` to force a client renewal under a maintenance window to reduce scope exhaustion. For preventing such in future, you can reduce the DHCP lease time from 8 days to 1 day using `ip dhcp pool CORP_WIFI / lease 1` or expand the DHCP scope by adding a secondary pool if the /24 is full. No need for escalatory steps as the provided context directly addresses the DHCP exhaustion issue and provides immediate fixes.\", \"cited_artifacts\": [\"KB-00006\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00002", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the issue where users on VLAN 40 (10.40.0.0/24) are getting APIPA addresses due to DHCP scope exhaustion, follow the immediate mitigation steps from KB-00006 which states to run `show ip dhcp pool` to confirm utilization and `clear ip dhcp binding *` if utilization exceeds 95%. If the utilization is high, use `show ip dhcp pool` again to check and apply `clear ip dhcp binding *`. Alternatively, for specific IP address resolution, use `clear ip dhcp binding <specific-ip>` for the targeted lease. No other solutions from the retrieved contexts are applicable for the MFA reset or Okta/Google Workspace SAML issues mentioned. Ensure DHCP utilization is kept below 95% and clear specific bindings as needed to prevent exhaustion and APIPA addresses for the floor 4 users. Escalation is not indicated as other contexts are not related to MFA, Okta, or Azure AD configuration issues which are outside the given context.\", \"cited_artifacts\": [\"KB-00006\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00012", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"The issue with the CI pipeline failing due to HTTP 401 in the Jenkins context with the github-integration-bot token can be resolved by following the steps in the API Token Rotation and Revocation (KB-00013) guide. Generate a new token while ensuring the old token is still valid and update all consumers one by one using a brief transition period for each. Ensure Jenkinsfile credentials are updated and the old token is reaped without downtime. No reference to API Gateway Timeout or Okta Provisioning is found in the context provided, so we do not have specific pointers for the CI pipeline error. Escalation to external failures can be avoided by sticking to the token rotation steps.\", \"cited_artifacts\": [\"KB-00013\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00012", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the CI pipeline failure due to 401 HTTP error with the github-integration-bot token in Jenkins, we need to ensure the token is rotating properly without downtime and possibly that there isn't an upstream issue with the Jenkins API token that isn't due to a TLS certificate or Okta SCIM provisioning. Refer to the API Token Rotation and Revocation from KB-00013 to manage the token rotation and security risk. No clear reference to an API Gateway timeout error (from KB-00018) or Okta SCIM provisioning setup (from KB-00014) for this issue is present in the retrieved context.\", \"cited_artifacts\": [\"KB-00013\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00012", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the CI pipeline failing due to the API token for the github-integration-bot returning a 401, we need to rotate the token with zero downtime. Generate a new token in Jenkins by adding a new token in the user's account and binding it to the Jenkinsfile. Ensure Jenkins does not use the old token by updating all consumers in a rolling deployment manner. Use the jenkins api token update command: 'user > configure > API Token > add new token'. Ensure no downtime by ensuring the new token is in use and fully replaced by the next update. Do not escalate to other tickets as the context provided does not directly relate to API Gateway timeout issues or Okta SCIM provisioning. Escalation to similar tickets or broader configurations such as certificate rotation is not applicable here.\", \"cited_artifacts\": [\"KB-00013\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00012", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the Jenkins CI pipeline failing due to HTTP 401 with the github-integration-bot token, follow the API Token Rotation and Revocation approach from KB-00013 to rotate the token with zero downtime. Create a new token while keeping the old token valid for a short transition period. Update Jenkins to use the new token one by one or via rolling deployment. Monitor access logs to ensure all consumers are using the new token. Update the Jenkinsfile to bind to the new token. No need for escalation as we have specific details for token rotation and revocation and no direct correlation with API Gateway timeout or Okta SCIM issues. Escalation is not applicable here.\", \"cited_artifacts\": [\"KB-00013\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00012", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the CI pipeline failure due to the 401 on the API token, we need to follow the zero-downtime rotation pattern for API tokens using the steps provided in KB-00013: Generate a new token while the old one is still valid, update all Jenkins consumers to use the new token one by one or via rolling deployment, and ensure all consumers are now on the new token by checking access logs and reassigning credentials in the Jenkinsfile before removing the old token. No direct escalations to the Jenkins API tokens, generic REST API tokens, Okta SCIM 2.0 setup, or TLS certificate renewal from the given context are applicable. Hence, there are no specific details for the API gateway timeout in the given context too.\", \"cited_artifacts\": [\"KB-00013\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00012", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the Jenkins CI pipeline failing due to the API token for the github-integration-bot returning HTTP 401, you need to rotate the PAT (Personal Access Token) with zero downtime. Use the pattern mentioned in KB-00013: Generate a new token while the old one is still valid, update all consumers of the token one by one, check if all are using the new token via access logs, and then revoke the old token. No other ticket details in the provided context relate to the CI pipeline failing due to a token, hence we can't escalate or provide specific help for any other services from the given data. Use this pattern for Jenkins CI failures due to token rotations.\", \"cited_artifacts\": [\"KB-00013\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00012", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the CI pipeline failing due to a 401 error with the github-integration-bot token, you need to rotate the API token. Follow the steps from the API Token Rotation and Revocation (KB-00013) guidance. Generate a new token while the old one is still valid, update all consumers one by one, verify by checking Jenkins access logs to ensure the old token is no longer being used, and then revoke the old token. No need to address Jenkins API Tokens or REST API tokens due to the context. For TLS certificate and Okta configurations, these are not related to the given issue and hence not applicable here.\", \"cited_artifacts\": [\"KB-00013\"], \"confidence\": 0.1, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00012", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the Jenkins CI pipeline failing with HTTP 401 due to API token rotation issues, follow the zero-downtime rotation pattern from the API Token Rotation and Revocation (KB-00013) guide: Generate a NEW token while the OLD token is still valid, update all consumers (via rolling deployment for Jenkins), and verify all consumers are using the new token. No direct mention of CI pipeline issue or API Gateway timeout from the context, but the zero-downtime rotation of Jenkins API Tokens should be applied. No escalation needed from the retrieved context.\", \"cited_artifacts\": [\"KB-00013\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00047", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the internal microservice causing auth failures due to a TLS cert that has expired on internal-auth-service.corp.example.com, follow the steps from the TLS Certificate Renewal for Internal Services (KB-00014) guide. Generate a new CSR for the microservice and add any necessary Subject Alternative Names (SANs) to it using the provided formats and steps. Submit this CSR to the IT-PKI team via a ServiceNow ticket for category 'Certificate > Internal PKI' with a SLA of 2 business days. No need for emergency revocation or password rotation as these are for external service account updates or authentication procedures for external SAML SSO which are not relevant to this scenario. Escalation or lack of explicit mention of other steps from the retrieved context indicates no other immediate solutions are clear.\", \"cited_artifacts\": [\"KB-00014\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00047", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the TLS cert expiration issue on internal microservice, use the steps from KB-00014 for TLS certificate renewal. Generate a CSR for the microservice and submit it to the IT-PKI team for renewal through ServiceNow with category 'Certificate > Internal PKI', ensuring to renew at least 14 days in advance. No need to rotate API tokens or service account passwords as these are not mentioned in the retrieved context. Monitor the ServiceNow ticket for the renewal progress and install the renewed certificate in the microservice by updating the paths in the Nginx configuration files and ensuring the correct SSL certificate key path is in place.\", \"cited_artifacts\": [\"KB-00014\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00047", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the TLS certificate expiration issue on the internal microservice causing auth failures, we can use the guidelines from KB-00014 for certificate renewal. Generate a new CSR and add Subject Alt Name for the internal service using the steps from 'Request renewal from internal CA':1. Generate CSR using `openssl req -new -newkey rsa:2048 -nodes -keyout service.key -out service.csr -subj '/CN=internal-auth-service.corp.example.com/O=Corp/C=US'`. Add SANs with a config file `subjectAltName = DNS:internal-auth-service.corp.example.com,DNS:alias1,DNS:alias2,IP:192.168.1.1` and submit it to the IT-PKI via ServiceNow with category 'Certificate > Internal PKI' and urgency P1. For certificates causing hard failures (like in this scenario), follow the Internal CA and IT-PKI renewal steps ensuring it’s ≥14 days before the expiration. No need to escalate to the SAML service issues from KB-00010 as it pertains to SAML 2.0 and OAuth token issues in this context.\", \"cited_artifacts\": [\"KB-00014\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00047", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the TLS cert expiration issue on the internal microservice, use the guidance from KB-00014 on how to renew TLS certificates. Generate a CSR for the internal service, add Subject Alternative Name (SANs) if needed, and submit the CSR to the IT-PKI team for renewal via ServiceNow ticket category 'Certificate > Internal PKI' at least 14 days before the expiration date. Ensure the renew process is done by the IT-PKI team so the renewed certificate is submitted within the first 14 days for the internal service to avoid hard failure. No need to rotate or use generic REST API tokens as these are not relevant to the TLS certificate renewal for the internal service. There's no need for zero-downtime rotation tokens or password rotation for the internal service related to the TLS cert expiration problem. Escalation steps are not applicable as no IDs from 'Service Account Password Rotation Procedure' or 'SAML 2.0 SSO Configuration' are relevant to the TLS cert renewal issue.\", \"cited_artifacts\": [\"KB-00014\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00047", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the TLS cert expiration on the internal microservice causing auth failures, refer to the TLS Certificate Renewal for Internal Services KB-00014 for the solution. Generate a new CSR using the command `openssl req -new -newkey rsa:2048 -nodes -keyout <service>.key -out <service>.csr -subj '/CN=<fqdn>/O=Corp/C=US'`. Add SubjectAltNames to a config file, e.g., `subjectAltName = DNS:<fqdn>,IP:<ip>` for services that need specific IP addresses to be allowed. Submit the CSR to IT-PKI via ServiceNow with category 'Certificate > Internal PKI'. Ensure to renew the certificate at least 14 days before expiry and install the renewed certificate in Nginx with paths to ssl_certificate and ssl_certificate_key using `update ssl_certificate and ssl_certificate_key paths in /etc/nginx/nginx.conf and run `nginx -t && nginx` for configuration and restart`. No need for service account rotation or API token rotation as these contexts are not related to TLS certificate renewal for internal microservices.\", \"cited_artifacts\": [\"KB-00014\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00047", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the TLS cert expiration issue with the internal microservice, refer to the 'TLS Certificate Renewal for Internal Services' guide (KB-00014). Generate a new CSR for the microservice with `openssl req -new -newkey rsa:2048 -nodes -keyout microservice.key -out microservice.csr -subj '/CN=<fqdn>/O=Corp/C=US'`, and add Subject Alternative Names (SANs) with a config file for the CA internal. Submit a ServiceNow ticket with category 'Certificate > Internal PKI' and request a CSR, ensuring it's done at least 14 days prior to the cert expiry. No need to rotate API tokens or update service account passwords for this issue. No escalation needed from the context available.\", \"cited_artifacts\": [\"KB-00014\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00047", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the TLS cert expiration issue on the internal microservice, follow the steps from KB-00014 to renew the certificate. Generate a CSR for the microservice with `openssl req -new -newkey rsa:2048 -nodes -keyout internal-microservice.key -out internal-microservice.csr -subj '/CN=<fqdn>/O=Corp/C=US'` and add SubjectAltName for the internal service with `subjectAltName = DNS:<fqdn>,IP:<internal-service-ip>`. Submit the CSR to the IT-PKI team via a ServiceNow ticket under 'Certificate > Internal PKI' category. Ensure the CSR and config file (if needed) are sent to IT-PKI along with an update note that the certificate should be renewed at least 14 days before the expected expiration for standard operations or in 2 business days for urgent cases. There is no escalation needed as the context provides clear steps to handle certificate renewal for internal services, without mentioning any other complex procedures or escalations.\", \"cited_artifacts\": [\"KB-00014\"], \"confidence\": 0.1, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00047", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the TLS certificate on internal microservice causing auth failures due to the SSL certificate expiration, follow the steps for TLS certificate renewal from the retrieved context (KB-00014). Generate a CSR for the internal microservice with the appropriate command: `openssl req -new -newkey rsa:2048 -nodes -keyout microservice.key -out microservice.csr -subj '/CN=<fqdn>/O=Corp/C=US'` and add Subject Alternative Names (SANs) with a config file like `subjectAltName = DNS:<fqdn>,DNS:<alias>,IP:<ip>`. Submit the CSR to the IT-PKI team in ServiceNow ticket category 'Certificate > Internal PKI' with the subjectAltName, category, and ensuring it’s done ≥14 days before expiry. The IT-PKI team should receive the ticket and submit it for renewal and processing within 2 business days as the SLA indicates. No other steps from the retrieved contexts apply to the OAuth token or API token issues and the steps for password rotation are irrelevant here as they pertain to different services and protocols.\", \"cited_artifacts\": [\"KB-00014\"], \"confidence\": 0.1, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00039", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the LACP bundle issue between Catalyst 9300 and Nexus 7K switches with CRC error rate at 0.02%, the Nexus side should hard-set the speed and duplex on both ends to `speed 1000 / duplex full` using `show interface <int> | include duplex` and adjust the hold-timer mismatch on the Catalyst 9300 by using `neighbor <ip> timers <keepalive> <hold>` to ensure proper hold-timer configuration. No runbook directly addresses the Nexus side issues directly, but it can be remediated by reducing CRC error by configuring `show interface <int> | include CRC|input|output` for baseline counters, noting the count, and rechecking it after 5 minutes. No escalation is needed for fixing the Catalyst 9300 port flapping issues. Escalation runbooks are not provided for both devices to directly address the issue.\", \"cited_artifacts\": [\"KB-00007\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00039", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the LACP bundle failures between Catalyst 9300 switches to IOS-XE 17.12.3 and Nexus 7K where one member port is dropping every few hours, this issue is related to configuration mismatch on the Catalyst 9300 switches. Check that the configuration of the peer in the Nexus switch does not include any hold time mismatch parameters, and ensure both switches are on the same hold timer value by running `show ip ospf neighbors detail` and checking the 'Hello' and 'Network' values match. For the Nexus 7K, ensure the native VLAN is consistent with Catalyst 9300 by using `show ip ospf neighbors detail` and ensuring the native VLAN matches without any mismatches. No specific runbook found for Nexus 7K on Catalyst 9300 LACP bundle failure, thus refer to the above context for peer hold timer consistency and native VLAN configuration. No artifact from the context points to a Nexus 7K CRC error or configuration for LACP bundle issues directly. Escalation of the problem isn’t found in the context available for LACP bundle configuration between these switches.\", \"cited_artifacts\": [\"KB-00001\"], \"confidence\": 0.0, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00039", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the Catalyst 9300 firmware upgrade causing LACP bundle failures between 9300 and Nexus 7K switches, there is no direct runbook or clear reference to LACP bundle issues. However, a possible layer 1 issue leading to LACP bundle drops could be CRC errors due to mismatched duplex settings on the interface between the two switches. No need to escalate; fixing the duplex mismatch can be done by ensuring both ends of the interface are set to full-duplex with `speed 1000 / duplex full` as per step 2 of the Interface CRC Error Investigation and Remediation runbook. No runbooks found for direct LACP bundle issues between 9300 and Nexus 7K directly, so need to look for options relevant to LACP bundle failures on the switches (not found in the given context). Escalation to runbooks or direct CLI commands related to LACP bundle issues on Cisco switches or Nexus 7K is recommended but not available in the provided context.\", \"cited_artifacts\": [\"KB-00007\"], \"confidence\": 0.0, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00039", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the LACP bundle failure between Catalyst 9300 and Nexus 7K, the issue could be due to a configuration mismatch in the LACP settings or an underlying interface CRC error on one of the port speeds. No specific runbook is found in the retrieved context for the cross-vendor LACP issue between Catalyst 9300 and Nexus 7K. However, for the interface CRC error on Catalyst 9300 ports, set the speed and duplex on both ends to `speed 1000 / duplex full` and ensure there is no physical layer mismatch on the interface by checking cable length (Cat5e max 100m at 1G) and using `show interfaces <int> transceiver detail` for SFP and `show interfaces <int> transceiver detail` for copper with cable checks. No direct reference to Cisco Catalyst 9300’s LACP bundle state or configuration runbook exists in the given context. Escalation is not required given the information. Check the LACP bundle between 9300 switches by adjusting the speed settings and checking for CRC errors on the 9300 interface. No reference to a step-by-step runbook for Catalyst 9300 LACP bundle failure found. No escalation needed as we have no relevant direct remedies.\", \"cited_artifacts\": [\"KB-00007\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00039", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"The issue with Catalyst 9300 switches LACP bundle failures between Nexus 7K is due to the Nexus 7K having a mismatch in hold-timer configuration with the Catalyst 9300 for LACP bundles, leading to frequent bundle failures. For the Catalyst 9300, ensure the hold timer is configured correctly by running `neighbor <ip> timers <keepalive> <hold>` and the keepalive interval is set properly to synchronize with the peer. No direct reference for Nexus 7K or CRC errors are present in the given context. Escalation of this issue would require a runbook for Nexus 7K LACP bundle configurations which is not available in the provided context. More context or runbooks for Nexus 7K LACP configurations are required to escalate this ticket.\", \"cited_artifacts\": [\"KB-00001\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00039", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the LACP bundle failure between Catalyst 9300 switches to IOS-XE 17.12.3 and a Nexus 7K with LACP bundle randomly dropping one member port, the Nexus 7K is not related to the Nexus configuration and thus irrelevant to the Catalyst switch issue. For the Catalyst 9300, the issue could be due to CRC errors accumulating on one port due to a mismatch in the duplex settings. Ensure the Catalyst 9300 switches to a consistent duplex setting by using the command `speed 1000 / duplex full` to avoid CRC accumulation. No runbook or BMC directly aligns with LACP bundle issues but focusing on the interface CRC errors, monitor the `CRC` input count and the `duplex` setting on the Catalyst 9300 through `show interface int | include CRC|input|output` and `show interface int | include duplex` respectively. Escalation isn’t needed as no runbooks or direct resolution for Catalyst 9300/Nexus cross-vendor LACP bundle issue are available in the retrieved context. \", \"cited_artifacts\": [\"KB-00007\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00039", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the Catalyst 9300 LACP bundle issue with Nexus 7K, there is no direct runbook in the provided context for this specific cross-vendor LACP problem. However, the Nexus 7K is an AS/NX-OS system, and this can’t be inferred from the context. There's a lack of direct guidance for a Catalyst 9300/NX-OS LACP bundle issue. Therefore, we focus on the Nexus side which has no relevant runbook for the Catalyst 9300. No specific issue from the provided context directly points to a Catalyst 9300/NX-OS LACP bundle problem. Escalation advised due to insufficient context for the Catalyst 9300 issue.\", \"cited_artifacts\": [\"KB-00001\", \"KB-00007\"], \"confidence\": 0.0, \"escalate\": true}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00039", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the issue with Catalyst 9300 LACP bundle failures with a Nexus 7K, the problem is due to a mismatch in the BGP hold timers between the 9300 and the Nexus 7K, which is causing LACP bundle randomness. No direct runbooks for 9300/Nexus cross-vendor LACP issues can be derived from the given context. However, the Nexus 7K is known to have LACP issues which are often due to high CRC errors on the Catalyst 9300 side. Ensure on the Catalyst 9300, the hold timers between the peers are configured correctly with `neighbor <ip> timers <keepalive> <hold>`. For Nexus, ensure the LACP settings are consistent and there is no mismatch in native VLAN configuration. No direct troubleshooting runbooks for LACP bundle issues are provided for 9300 and Nexus in the context, and the provided runbooks do not directly apply. Escalation of knowledge is needed for more specific Nexus and LACP bundle issues with the 9300 switches which is beyond the given data.\", \"cited_artifacts\": [\"KB-00001\", \"KB-00007\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00036", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the service account breach, we need to rotate the API token immediately using the Zero-downtime rotation pattern as detailed in KB-00013, which states: 1. Generate a new token while the old token is still valid, 2. Update all consumers of the token one by one or via rolling deployment, 3. Verify all consumers are using the new token from access logs, and 4. Revoke the old token without any downtime. For password rotation of the AD account, refer to KB-00012: 1. Use CyberArk / HashiCorp Vault to update the new password before rotating in AD, 2. Rotate in AD with the command Set-ADAccountPassword -Identity <svc-account> -NewPassword (ConvertTo-SecureString '<new-password>' -AsPlainText -Force) -Reset, 3. Update dependent services in the order provided in the procedure, and 4. No direct steps for MFA bypass due to lack of specific steps in the provided contexts. Escalation details are not provided in the given context.\", \"cited_artifacts\": [\"KB-00012\", \"KB-00013\"], \"confidence\": 0.4, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00036", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the svc-reporting-api token rotation, use the API token rotation and revocation method as outlined in KB-00013: Generate a new token while the old one is still valid, update all consumers of the token one by one, and then revoke the old token to ensure zero downtime. For rotating the AD password, refer to the CyberArk vault update procedure in KB-00012: Update the new password in CyberArk / HashiCorp Vault and rotate in AD using the PowerShell Set-ADAccountPassword command and ensure to restart the dependent services in order. MFA bypass could be checked in KB-00011 for Okta and Azure AD MFA reset procedures, and for Google Workspace, follow the method in the context. There is no escalation from the given context and all steps are directly applicable from the provided information.\", \"cited_artifacts\": [\"KB-00013\", \"KB-00012\", \"KB-00011\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00036", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the svc-reporting-api service account breach, rotate the AD password of svc-account using KB-00012 by running the command `Get-ADUser <svc-account> -Properties ServicePrincipalNames,Description` and ensuring no dependent services are impacted. For the token rotation and revocation, use the zero-downtime rotation strategy from KB-00013, where generate a new token (step 1), update all consumers (step 2) and ensure all are on the new token (step 3). Keep the new token active for at least the rotation period by setting a short window. Ensure no MFA bypass by following the Okta and Azure AD MFA reset procedures from KB-00011 without escalation to find MFA bypass issues. No references to events-logs or SAML issues from the provided contexts.\", \"cited_artifacts\": [\"KB-00012\", \"KB-00013\", \"KB-00011\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00036", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the service account breach, we need to rotate the API token using the zero-downtime rotation pattern from KB-00013, generate a new token, update all consumers one by one, and then revoke the old token. For the password rotation in AD, follow the steps from KB-00012: perform the 'Impact assessment' with Get-ADUser cmdlet to check dependent services, and update the new password in CyberArk / HashiCorp Vault first before changing in AD with the Set-ADAccountPassword cmdlet. No specific MFA bypass or account unlock from the provided contexts. Escalation procedures not mentioned. No clear steps are given for account lockout, SAML configuration, or other issues. Escalation not advised without additional context.\", \"cited_artifacts\": [\"KB-00012\", \"KB-00013\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00036", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For revoking the API token, use the zero-downtime rotation pattern from KB-00013: generate a new token while the old one is still valid, update all token consumers one by one or via rolling deployment, and then verify the consumers are using the new token. For rotating the service account password, refer to the CyberArk CyberArk procedure from KB-00012: update the password in the CyberArk vault first and then in Active Directory following the steps in the script. For password resets and MFA bypass, use Okta for the admin reset from the Okta admin console, and Azure AD / Entra for the MFA reset through PowerShell for admin intervention with caution. No specific ticket or escalation, hence no need to escalate to more specific tickets within the provided data.\", \"cited_artifacts\": [\"KB-00012\", \"KB-00013\", \"KB-00011\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00036", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the svc-reporting-api token breach, rotate the API token using the 'Zero-downtime rotation pattern' by generating a new token while the old one is still valid, then update all consumers of the token one by one or via rolling deployment (using method from KB-00013). For rotating the AD password without breaking dependencies, execute the CyberArk vault update and AD password change procedure from KB-00012 with step-by-step checks for impact assessment, update in CyberArk Vault first, and rotate in AD (using step 3 and 4). No information is found in the provided context to troubleshoot MFA bypass or the specifics of API token revocation from Okta or Azure AD, hence no specific method or reference can be provided for these. Escalation is not required as detailed steps for each problem are available in the mentioned keys.\", \"cited_artifacts\": [\"KB-00012\", \"KB-00013\"], \"confidence\": 0.5, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00036", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"To rotate the service account credentials and ensure zero downtime for API token rotation, follow these steps: For the API token, use the zero-downtime rotation pattern for GitHub Personal Access Tokens (PATs) by generating a new token while the old one is still valid, then update all consumers one by one. For Jenkins API tokens, update the credentials binding in Jenkinsfile before removing the old token from the user account. For password rotation in Active Directory (AD), update the password in CyberArk / HashiCorp Vault before changing in AD and follow the CyberArk procedure with 'Get-ADUser' to check for dependent services. For revoking the token, update all consumers of the token (one by one or via rolling deployment) and verify with access logs that all consumers are using the new token. No specific escalation or additional steps from the retrieved contexts apply as all necessary steps are covered. Escalation is not needed as all steps are available in the provided context.\", \"cited_artifacts\": [\"KB-00013\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00036", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"To rotate the API token, follow the zero-downtime rotation procedure from KB-00013: Generate a new token while the old one is still valid (step 1). Use the 'Create new token' method in GitHub and Jenkins to update all consumers of the token one by one, updating access logs (step 2-4). For rotating the service account password without breaking dependent services, use the CyberArk vault and AD rotation from KB-00012: Before rotating, check all dependencies with `Get-ADUser <svc-account> -Properties ServicePrincipalNames,Description` and search config files (step 1). Update the new password in CyberArk or HashiCorp Vault first and rotate in AD using `Set-ADAccountPassword` (step 3). For credentials rotation and audit of services, we don’t have specific steps from the given context. For password reset in AD, use `Unlock-ADAccount` if users are locked out (step 4 in KB-00010 if detailed steps were not provided). No methods for MFA reset were present in the provided context. Escalation is not mentioned with available context.\", \"cited_artifacts\": [\"KB-00012\", \"KB-00013\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00030", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For David Chen’s executive account lockout in Active Directory, use the following steps: Unlock the account using the PowerShell command `Unlock-ADAccount -Identity 'DavidChen'`. For the MFA reset, go to the Okta Admin Console, navigate to Directory > People and search for 'DavidChen'. Click the user > More Actions > Reset Multifactor. Confirm the reset and send the user an activation email. For Azure AD MFA reset, go to the Azure Portal, Users, select the user, and navigate to Authentication methods, where you can disable MFA and re-enable it without user intervention. No specific steps for the Okta reset via Okta Admin Console are provided, but the Okta MFA reset steps are available from KB-00011 which has the Okta reset details for David Chen. No relevant steps from Azure Portal or SAML configuration errors are directly applicable to the Okta or Azure Portal resets from the provided contexts, hence no direct references for the Azure Portal or SAML errors here.\", \"cited_artifacts\": [\"KB-00011\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00030", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the AD account lockout, use the PowerShell command `Get-ADUser <username> -Properties LockedOut,BadLogonCount,LastBadPasswordAttempt` to check the lockout status and unlock the account with `Unlock-ADAccount -Identity <username>`. For the Okta MFA reset, navigate to Okta Admin Console > Directory > People > Search user. Click the user and use More Actions > Reset Multifactor, and confirm the reset with the Okta Admin Console's user details. No direct procedure for Google Workspace or Azure AD MFA reset is provided, but for Okta, the Okta Admin Console steps and the Okta MFA reset procedure under the Okta MFA reset section in the provided contexts can be utilized. There is no direct API Token, GitHub, or Jenkins token rotation procedure available for this context. Escalation or additional tools are not required from the given information.\", \"cited_artifacts\": [\"KB-00011\"], \"confidence\": 0.4, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00030", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For David Chen’s MFA reset, use Okta Admin Console > Directory > People > Search user and click user > More Actions > Reset Multifactor. Confirm the reset via video call. For the AD account lockout, use the PowerShell command `Unlock-ADAccount -Identity <username>` to unlock the account, and ensure the user's password has not reached the limit by checking with the command `(Get-ADUser <username> -Properties PasswordExpired).PasswordExpired`. This bypasses the issue of a bad password count leading to the account lockout. No need for password expiry reset or service account password rotation procedures from the given context. Escalation tools are not applicable here due to sufficient solutions within the given contexts.\", \"cited_artifacts\": [\"KB-00011\", \"KB-00010\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00030", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the AD account lockout, use the PowerShell command `Get-ADUser DavidChen -Properties LockedOut,BadLogonCount,LastBadPasswordAttempt` to check if the account is locked. If LockedOut=True, unlock the account with `Unlock-ADAccount -Identity DavidChen`. For MFA reset, follow the Okta Admin Console steps for the Okta MFA reset: Search for the user under 'People' > Click the user > More Actions > Reset Multifactor and confirm the reset. Use the Okta Admin Console for this. No other procedures from the provided contexts directly correlate to Azure AD or API token rotation. Escalation is not required for the above steps.\", \"cited_artifacts\": [\"KB-00011\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00030", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the AD account lockout, use `Get-ADUser <username> -Properties LockedOut,BadLogonCount,LastBadPasswordAttempt` to check if the account is locked and unlock it with `Unlock-ADAccount -Identity <username>` if LockedOut=True. For the Okta MFA reset, use the Okta Admin Console > Directory > People > Search user, click user > More Actions > Reset Multifactor, and follow steps 1-4 from the Okta MFA reset procedure in the Okta MFA reset section. For the Google Workspace MFA reset, use `gam update user <email> is2svEnrolled false`. No direct steps are available for the Azure AD MFA reset or API token rotation procedures from the given context. Escalation or inadequate steps are not listed here. Use the Okta Admin Console for the Okta MFA and search resources for the Azure Portal for MFA reset steps. No specific Azure AD tools or PowerShell are listed for MFA reset escalation.\", \"cited_artifacts\": [\"KB-00011\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00030", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the AD account lockout, use `Get-ADUser <username> -Properties LockedOut,BadLogonCount,LastBadPasswordAttempt` in PowerShell to check if the lockout status and to unlock the account with `Unlock-ADAccount -Identity <username>` if LockedOut=True. For MFA reset, the Okta Admin Console should be used to reset MFA: Go to People > Search user > Click user > More Actions > Reset Multifactor and confirm reset by the Okta Admin Console. Ensure that Okta is being used and the Okta Admin Console steps are followed. No specific steps are provided for Azure AD or Google Workspace MFA reset due to insufficient context in the given information. Escalation measures are not required for the steps provided in Okta and AD lockout procedure resolutions. \", \"cited_artifacts\": [\"KB-00011\"], \"confidence\": 0.4, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00030", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For David Chen's account lockout in AD, use the Get-ADUser command to check the lockout status: `Get-ADUser <username> -Properties LockedOut,BadLogonCount,LastBadPasswordAttempt` and unlock with `Unlock-ADAccount -Identity <username>` if LockedOut=True. For MFA reset, use the Okta Admin Console to reset with more steps: search user in Admin Console > Directory > People > Search user, then click More Actions > Reset Multifactor and follow Okta procedure. No additional escalation procedures are available from the provided contexts. No Service Account Password Rotation procedure is related to the given context and thus not applicable.\", \"cited_artifacts\": [\"KB-00011\", \"KB-00010\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00030", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For David Chen, his AD account lockout can be resolved by checking the lockout status using `Get-ADUser <username> -Properties LockedOut,BadLogonCount,LastBadPasswordAttempt` in PowerShell and unlocking the account with `Unlock-ADAccount -Identity <username>` if LockedOut is True. For the MFA reset, the Okta Admin Console should be used for the Okta MFA reset process with `Okta Admin Console > Directory > People > Search user > Click user > More Actions > Reset Multifactor` and the Okta reset should be done through the Okta Admin Console to ensure no sessions are hijacked before the reset. No need for escalation since all required procedures are within the provided KBs.\", \"cited_artifacts\": [\"KB-00011\", \"KB-00010\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00004", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the CRC error rate issue on GigabitEthernet0/1 of SW-FLOOR2-01, check for a mismatch in the duplex settings between the switch and the workstation (using `show interface <int> | include duplex` to ensure the workstation is in full-duplex mode and the switch port is set correctly to the same). For the MTU misalignment, ensure the interface MTU on the switch and workstation are aligned (use `show ip ospf neighbor` to see if stuck in INIT and check for MTU mismatch by comparing the actual MTU of the physical interface with the MTU in the switch configuration. There's no need to escalate as these issues are well-addressed in the provided context.\", \"cited_artifacts\": [\"KB-00007\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00004", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the high CRC error rate on GigabitEthernet0/1 of access switch SW-FLOOR2-01, check for a mismatch in the duplex settings between the switch and the workstation. Use the `show interface GigabitEthernet0/1 | include duplex` to see if one side is set to half-duplex while the other is full-duplex. For interface MTU and area mismatch, observe the `show ip ospf neighbor` command to see if the interface is stuck in INIT or if the MTU is different from the peer's or if the area flags in `show ip ospf` match between the switches. No need to use the troubleshooting APIs for this since the context does not mention them for the CRC error rate on the interface.\", \"cited_artifacts\": [\"KB-00007\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00004", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the CRC error rate on GigabitEthernet0/1 of SW-FLOOR2-01, check for a mismatch between the MTU (if MTU of the interface differs from the peer interface) and apply `ip ospf mtu-ignore` on both interfaces if applicable. For the full duplex mismatch, use `show interface GigabitEthernet0/1 | include duplex` to confirm if one side is full-duplex and the other is half or auto duplex, and fix it by setting `speed 1000 / duplex full` on both ends. No mention of IPSec, 504 timeouts, or API gateway issues in the given context, so the above steps should resolve the CRC issue on the interface. Escalation not needed for this scenario as the context covers relevant problems.\", \"cited_artifacts\": [\"KB-00007\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00004", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the high CRC error rate on GigabitEthernet0/1 of SW-FLOOR2-01, check for a duplex mismatch by running `show interface GigabitEthernet0/1 | include duplex`. If one side is set to full-duplex and the other to half-duplex or auto, you need to hard-set the speed to full and duplex on both ends using `speed 1000 / duplex full`. There are no escalations needed based on the provided context, hence no need to refer to the other KBS. No specific KBS link can be referenced as no direct links align with MTU or IB area configuration issues.\", \"cited_artifacts\": [\"KB-00007\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00004", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the CRC error rate on GigabitEthernet0/1 of access switch SW-FLOOR2-01, check the duplex settings between the switch and the workstation with `show interface <int> | include duplex` to ensure both are set to full-duplex. Adjust the configuration of the switch port to `speed 1000 / duplex full` using `speed 1000 / duplex full`. For the MTU mismatch issue, ensure the physical MTU matches the switch MTU using `show interfaces <int> transceiver detail` and `show interface <int>` and recheck `show interface <int> | include CRC|input|output` to see if CRC rates normalize. There is no mention of areas, authentication mismatches, or MTU DBD packet issues, and the tunnel flapping and API gateway timeout issues are unrelated to the network error in question. Escalation is not applicable here.\", \"cited_artifacts\": [\"KB-00007\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00004", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the high CRC error rate on GigabitEthernet0/1 of SW-FLOOR2-01, ensure duplex settings are consistent (full-duplex for both devices connected via this interface) by checking with the command `show interface <int> | include duplex` and fixing it with `speed 1000 / duplex full`. For the MTU mismatch issue, since there is no MTU detail mention here, ensure that the MTU settings on both devices are consistent by checking with `show interfaces <int> | include mtu` and ensuring there's no setting differing. No need for area type or authentication issues as indicated by the provided context. Escalation not required for these specific symptoms.\", \"cited_artifacts\": [\"KB-00007\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00004", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the high CRC error rate on GigabitEthernet0/1 of SW-FLOOR2-01, check the duplex settings and the physical layer of the interface: Use `show interface GigabitEthernet0/1 | include duplex` to ensure both ports are set to full-duplex and that `speed 1000 / duplex full` is configured on both ends. For physical layer check, use `show interfaces GigabitEthernet0/1 transceiver detail` to ensure the Rx power is not below -20 dBm and the cable length does not exceed 100m. No need to check MTU or area settings as they are irrelevant. No need to escalate as the retrieved context does not include relevant details on the OSI layer or VPN tunnel issues.\", \"cited_artifacts\": [\"KB-00007\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00004", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the CRC error on GigabitEthernet0/1 of SW-FLOOR2-01, check for a mismatch in the duplex settings between the workstation and the switch port by using the command `show interface GigabitEthernet0/1 | include duplex`. Ensure both are set to `speed 1000 / duplex full`. Use `show interfaces GigabitEthernet0/1 transceiver detail` to check the SFP and ensure the Rx power is above -18 dBm. No need to check for MTU mismatch or authentication mismatch as the steps for these are not applicable here. No evidence of area mismatch can be found in the provided contexts. No context for the MTU of the interface and troubleshooting for Cisco IPSec tunnels or API gateway timeout issues is present. Escalation checks are not applicable as the other contexts provided are specific to the given problem. No need for 'debug ip ospf adj' or any other troubleshooting directly mentioned from the provided contexts.\", \"cited_artifacts\": [\"KB-00007\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00009", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the Okta SCIM 2.0 provisioning setup issue where new Okta users are not being provisioned to Salesforce, Sarah Williams needs to enable Okta SCIM provisioning in Okta Admin under Applications > App > Provisioning tab and set up the connector with the base URL and HTTP authentication header from Salesforce. Attribute mapping for Okta to Salesforce includes userName (maps to email), givenName, and familyName. No need for Kerberos configuration or SAML setup as these are out of the Okta to Salesforce context. Ensure the Okta Okta connector passes the test with the Okta Okta Connector Test and the Salesforce app on the Okta Provisioning Sync status should indicate successful setup. No escalatory steps needed as the context provided is sufficient for Okta to Okta connector Okta to Salesforce attribute mapping and Okta Provisioning configuration.\", \"cited_artifacts\": [\"KB-00009\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00009", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"The issue with Sarah Williams being unable to log into Salesforce due to silent provisioning failures in Okta SCIM 2.0 is because the Okta SCIM 2.0 provisioning setup is misconfigured. In Okta Admin, enable SCIM provisioning for the Salesforce app under the Provisioning tab, and use the base URL `https://your-app.com/scim/v2/` in the Okta admin for the Salesforce application. Generate a Bearer token for the Salesforce app and ensure the attribute mappings include the required attributes: userName (maps to email), givenName, and familyName. For the Okta-to-Salesforce integration to work, Okta sends a GET /scim/v2/Users request and needs to be successful with a status of 200. If the connector is not working, check for errors like 401 or 404. No escalatory actions are necessary based on the given context.\", \"cited_artifacts\": [\"KB-00009\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00009", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the Okta SCIM 2.0 provisioning issue for the new Salesforce integration, Sarah Williams needs to enable the Okta SCIM provisioning in Okta Admin under the Applications section. Enable the SCIM provisioning for the Salesforce app and ensure the attribute mappings are correctly set: userName maps to email, givenName to the givenName attribute, and familyName to the familyName attribute in Okta. In the target Salesforce app configuration, ensure SCIM endpoints are enabled and the OKTA_APP_SCIM_OKTA_SCIM_APP_URL is set to the Okta App URL provided by Okta for Okta SCIM integration. Test the connector by performing a GET /scim/v2/Users and ensure the app responds with a 200 status. If there are any failures, ensure that the OKTA_APP_SCIM_OKTA_SCIM_APP_KEY matches the provided Bearer token in the Okta Admin and that the SCIM connector base URL points to the Okta SCIM app in Salesforce. No need for escalations as all steps are directly linked to the Okta SCIM 2.0 provisioning setup in the provided contexts.\", \"cited_artifacts\": [\"KB-00009\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00009", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the Okta SCIM 2.0 provisioning setup error where the Okta Admin console is not recognizing the Push Users and Push Profile Updates steps correctly, the user should configure Okta to enable SCIM provisioning and map the required attributes in the Okta Admin > Applications > App > Provisioning tab, ensuring that the attribute mapping includes 'userName' for email, 'givenName' for first name, and 'familyName' for last name. Since the Okta App needs to be configured with a Bearer token and a SCIM endpoint enabled, the integration setup should be done as follows: In Okta Admin, enable SCIM provisioning, generate a Bearer token from the target application, and ensure the attribute mapping steps are accurate with the required attributes. For failures, like getting 401 errors or 404 on /scim/v2/Users, these indicate issues with the Bearer token or SCIM endpoint configuration respectively, and should be addressed by generating a new token or rechecking the SCIM endpoint enablement in the target app config. No specific steps are listed for Okta SSO configuration or SAML 2.0 configuration issues from the provided context. Escalation steps are not applicable as the steps are detailed for Okta SCIM provisioning only.\", \"cited_artifacts\": [\"KB-00009\"], \"confidence\": 0.1, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00009", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"The Okta SCIM 2.0 provisioning setup for the new Salesforce integration is misconfigured. Ensure that Okta Admin > Applications > App > Provisioning tab > Enable SCIM provisioning is enabled. In the Salesforce setup, configure the Okta SCIM connector base URL as 'https://<your-app>/scim/v2/'. Use the Okta Admin > Applications > App > Provisioning tab to set up the Bearer token in the target app and paste it in the Salesforce setup. Test the connector by hitting the Okta endpoint with a GET /scim/v2/Users request and ensure it returns a 200 status. The attribute mappings should be set to 'userName' for email and 'givenName' and 'familyName' for name components. No need for escalation as the context is detailed with solutions for Okta and Salesforce SCIM integration. Escalation issue is not apparent.\", \"cited_artifacts\": [\"KB-00009\"], \"confidence\": 0.2, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00009", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"Sarah Williams' Okta SCIM 2.0 provisioning setup with Salesforce seems misconfigured. Ensure that Okta SCIM 2.0 is enabled for Salesforce in the Okta Admin -> Applications -> App -> Provisioning tab with 'Enable SCIM provisioning'. Attribute mappings in Okta are required to be configured as 'userName maps to email', 'givenName maps to firstName', and 'familyName maps to lastName' in Salesforce for user sync. The Bearer token needs to be configured correctly with the HTTP Header authentication in Okta -> Applications -> App -> SCIM Settings. Test connector to Okta: GET /scim/v2/Users should return 200 status. If there’s any misalignment with attribute mappings, need to revisit the OKTA_APP_SCIM_CONNECTOR_URL base URL for Salesforce in Okta Admin and ensure that the ‘User ID Attribute’ maps properly to the Okta ‘user ID’ in Salesforce under Setup -> Identity -> Users. No escalation needed with the given information.\", \"cited_artifacts\": [\"KB-00009\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00009", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the Okta SCIM 2.0 provisioning setup issue, the new Okta integration with Salesforce should be set up correctly according to the Okta SCIM 2.0 Provisioning Setup and Troubleshooting KB-00009 guide. In Okta Admin under Applications, select the Okta app, go to Provisioning and enable SCIM provisioning. For attribute mapping, set up the following: userName (maps to email), givenName, and familyName attributes from Okta to the respective fields in Salesforce. Use the Okta Bearer token from the Okta Admin > Applications > App > SCIM Provisioning settings and ensure the SCIM connector base URL and Auth method are correctly configured to pass the token. Test connector status by a GET request to Okta /scim/v2/ and verify if it returns a 200 status. No escalatory actions are required. No direct match for attribute mapping issues or SAML configurations. Escalation checks are not applicable here as Okta SCIM setup is clear.\", \"cited_artifacts\": [\"KB-00009\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
{"ticket_id": "TRAIN-00009", "completion": "```json\n{\"tool_name\": \"submit_resolution\", \"arguments\": {\"resolution\": \"For the Okta SCIM provisioning setup issue preventing new employee Sarah Williams from logging into Salesforce, you need to ensure Okta SCIM provisioning is correctly set up and attribute mapping is done accurately. In Okta Admin, go to Applications and enable SCIM provisioning for the Salesforce app. Use the Okta SCIM connector with the following details: Base URL is `https://<your-app>/scim/v2/`, and the Auth Header should be configured with the correct Bearer token (this can be obtained and configured in the target Salesforce app). Attributes mapping in Okta needs to be configured with 'userName' mapped to the email attribute in Salesforce and 'givenName' and 'familyName' mapped to 'name.givenName' and 'name.familyName' respectively in Salesforce. No need to escalate, all details are from the Okta SCIM 2.0 Provisioning section from KB-00009. No additional steps are required based on the provided Okta issues, but ensure the Salesforce admin config settings match Okta for attribute mapping and base URL to prevent silent failures.\", \"cited_artifacts\": [\"KB-00009\"], \"confidence\": 0.3, \"escalate\": false}}\n```", "parsed": true, "r_parsimony": 1.0, "step": 200}
|
||||
Reference in New Issue
Block a user