How to Track Configuration Management Procedure? Closed-Loop Architecture with Asset Discovery, Monitoring, and AIOps. The procedure is documented, but is it really applied in the network, server, and cloud? In this article, we discuss which layer tracks each procedure step, how these layers are connected, and with which KPIs you can measure the health of the process.
The configuration management procedure is tracked not by a single tool, but by a cycle of four layers: Asset Discovery manages the "what is out there?" question and the CMDB, NCM manages the baseline, drift, and rollback, Monitoring manages the live impact of the change, and AIOps manages correlation, risk, and automatic actions. They all connect to the change record in ITSM via API; the process is measured with KPIs such as inventory accuracy, drift rate, unauthorized change rate, and MTTR.
In most organizations, there is a configuration management procedure: a change request is opened, CAB approves, and it is implemented in a planned window. The problem is that the procedure stays on paper. Three typical disconnects are observed:
Making the procedure trackable means attaching an automated evidence source to each step. Each of these sources lives in a different class of tools.
The classic process (ITIL, ISO/IEC 20000, ISO 27001 A.8.9) consists of the following steps. The table shows which layer automatically tracks each step.
| Procedure Step | Asset Discovery | NCM | Monitoring | AIOps |
|---|---|---|---|---|
| CI Identification | Finds, classifies the device, writes to CMDB | Links the configuration file to the CI | – | – |
| Baseline | Hardware/software version baseline | Saves the approved configuration | Extracts performance baseline | Learns normal behavior |
| Change Control | Shows dependencies and impact area | Applies the change, backs up the previous state | Verifies the impact live | Scores the risk, correlates it with the incident |
| Status Accounting | Updates the CMDB | Keeps the version history | Logs the events | Establishes the change-incident relationship |
| Audit | Catches unregistered devices | Finds drift and non-compliance | Alerts on deviation | Highlights anomalies |
| Backup | – | Periodic and event-based backup | Monitors backup job success | – |
| Recovery | – | Applies rollback | Verifies recovery | Triggers automated remediation |
Agentless Asset Discovery
A New Era in Network Management: SolarWinds Network Configuration Manager (NCM)
Latency, packet loss, CPU/memory, interface error rate, and service availability are monitored during the change window.
Syslog (e.g., "configured from console" log), SNMP traps, and API events are the first indicators of a non-RFC change.
Change markers are placed on graphs. A metric deviation and a change are seen on the same axis.
By monitoring the relationship between the business service and its underlying CIs, it becomes visible which service a deviation in a device reflects on.
Monitoring Systems and CI Data: Co-Management and Strategic Relationship
Note: The value of the AIOps layer is limited by the quality of the data it feeds on. If the inventory is dirty, correlation is built between the wrong CIs; if change records are missing, the question "which change caused this incident?" remains unanswered. Therefore, the investment order is generally discovery, NCM, monitoring, and AIOps.
ODYA Automated NOC Solutions
A VLAN and trunk setting is changed on a distribution layer switch. The cycle works as follows:
In a CLI change made on the same switch without an RFC, the chain starts differently: a syslog event triggers NCM's real-time comparison, a deviation from the baseline automatically opens a record in ITSM as an "unauthorized change", and a notification goes to the security/operations team.
Configuration management records what state assets should be in (baseline) and what state they actually are in. Change management manages the request, risk analysis, approval, and implementation flow to change this state. They work together: change management updates the baseline in a controlled manner, configuration management holds the evidence of this.
Configuration drift is the deviation of a device's running configuration from the approved baseline due to an unapproved or undocumented change. NCM tools detect drift by pulling the running configuration periodically and on an event-basis (syslog, trap, API) and comparing it with the baseline.
AIOps correlates configuration change events with monitoring alarms, suggests which change is linked to an incident, highlights abnormal deviations, and generates a risk score for a new change based on historical data. As maturity increases, it can automatically trigger steps like drift remediation and rollback.
It is to use automated discovery and reconciliation instead of manual entry. The asset discovery solution periodically scans the network, servers, cloud accounts, and container environments; detects duplicate, obsolete, and unregistered CIs and maps them to the CMDB.
Inventory accuracy, discovery coverage rate, baseline coverage rate, drift rate and remediation time, unauthorized change rate, change success rate, change-induced incident rate, MTTD, MTTR, alarm noise reduction rate, and auto-resolved incident rate are the core KPIs.
The ODYA Teknoloji team conducts working sessions that address configuration and compliance management with SolarWinds NCM, automated inventory and CMDB reconciliation with SPIDYA Asset Discovery, and correlation and ITSM integration with ODYA Automated NOC together. We can review your existing tool inventory and procedure together to identify which step is currently evidenced by which layer.
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