Infrastructure as Code: The New Way of Working
Apr 30, 2026
The benefits and adoption of cloud have been well documented. Cloud platforms built on virtual platforms like AWS, Azure etc. free organizations from the complexities of maintenance, besides brining in cost and operational efficiencies. Another advantage is on-demand speed, which in turn has enabled machine-readable definitions and version control made using Infrastructure as Code (IaC) a reliable reality.
Adoption of IaC
Enterprises today are looking for new ways of working (NWOW), with a focus on automation and innovation. Opensource tools, advantages like cost, faster execution, error-free, and cloud’s API-based approach are fast-tracking the adoption of IaC. It allows automation of repeatable tasks like provisioning, configuration, and deployment, bringing speed, agility and innovation. This trend has pushed cloud providers to invest in tools for a steady and repeatable environment covering almost all their services including network, servers, load balancer, storage, etc. and integrating these into the DevOps lifecycle.
Incorporation or transformation?
Many digital-first organizations like Uber, Netflix, AirBnB, Amazon, etc. live and breathe the software-defined infrastructure. Though IaC has emerged as a new norm of automation in the value chain of software delivery lifecycle it is not a transformation for such breakaway enterprises because they have built their business, culture, and value stream in a greenfield without the baggage of legacy systems and practices. On the other hand, organizations with a traditional established value stream will find IaC adoption to be a bit challenging, as it impacts their culture, practices, and values. To succeed, they will have to be ready to undergo a transformation and embrace NWOW.
Advantages of IaC
Adoption of an automated infrastructure not only speeds up the availability of infra service, but also helps in developing and deploying software. Let’s look at these in detail:
- Efficient deployment process: Makes software development process efficient by allowing you to spin up entire infrastructure including servers, databases, storage system and network components by simply running deployment script(s)
- Errors/deviation reduction: This helps IaC helps standardize infrastructure. Also, consistency for security standards across enterprise can be achieved easily. It creates a stable environment for application and reduces failure rate
- Easy application rollouts and rollbacks: Application rollouts across different environments such as Development, Production can be achieved easily. Since all environments are codified, reverting to desired state is possible by running scripts. It also introduces Continuous Integration and Continuous Deployment techniques which further helps to reduce errors and increase speed
- Reduced cost for disaster recovery: IaC helps to cut down high cost for disaster recovery. As infrastructure is reduced to code and can be deployed easily to cloud. This code can be used to spin up new environment in different cloud regions without any extra cost for maintaining standby environment.
- Efforts saving: As repetitive, manual tasks are automated with scripts, engineers have more time for higher value activities.
The future of IaC
IaC has become essential in the modern world, removing infrastructure distractions so that developers can focus on the application code, delivering the solution, and ensuring faster ROI. Not surprisingly, many enterprises are completely automating workflows that were once done manually. Infrastructure as Code is the assurance of a consistent set of instructions and standardization across different environments. Thus, organizations are using more platform-neutral tools such as Terraform, Chef, Puppet, Ansible, etc. to extend this portability benefit across cloud providers or hybrid cloud platforms easily move the workload across different availability zones and regions, as business demands.
At its core, the architecture followed Microsoft’s Cloud Adoption Framework (CAF) and positioned Azure Monitor as the central observability layer.
Monitoring signals including logs, metrics, and events from application virtual machines, Oracle Exadata database nodes, and Azure platform services were collected and processed into a unified pipeline. These signals were then stored, analyzed, and visualized using Azure-native tools, enabling faster and more contextual decision-making.
An important component of this setup was Azure Log Analytics for Oracle, which enabled deeper analysis of database logs alongside infrastructure telemetry. This allowed teams to correlate database-level events with system-level signals, significantly improving troubleshooting and root cause analysis.
Additionally, Microsoft Sentinel was integrated to enhance threat detection and security correlation, leveraging Azure Log Analytics for Oracle data to provide a more comprehensive security posture.
Integrating AutoDB+ with Cloud-Native Monitoring
To extend observability further, organizations often layer in intelligent platforms such as AutoDB+.
AutoDB+ is an advanced database automation and observability platform designed to enhance database health monitoring, predictive analytics, anomaly detection, and automated remediation.
Rather than replacing native cloud monitoring, it complements it with deeper DBspecific intelligence. What this looks like in practice:
- Correlates signals across layers by bringing together infrastructure, database, and SQL-level metrics into a single view
- Delivers richer diagnostics, going beyond standard platform insights to pinpoint root causes faster
- Applies AI/ML-driven anomaly detection to identify performance deviations early
- Enables auto-healing through automated remediation workflows
- Extends observability across hybrid estates, ensuring consistency beyond a single cloud environment

How the Insurance Leader Improved Oracle AI Database@Azure Operations
With this architecture in place, the organization was able to significantly improve how it managed its Oracle AI Database@Azure environment.
Visibility became centralized across all Oracle AI Database@Azure components, eliminating the need for separate Oracle tooling for infrastructure-level monitoring. Troubleshooting became faster, as teams could correlate Oracle alert logs with compute and storage events using KQL queries.
Predictive insights also improved. Azure Monitor baselines, combined with machine learning models, helped identify unusual I/O patterns before they escalated into incidents.
Operational workflows became more streamlined as well, with integrations across ServiceNow, Microsoft Teams, and ITSM systems enabling automated alerts and responses.
The cumulative impact was substantial. Manual overhead reduced significantly, and dashboards and query-driven insights cut troubleshooting effort by nearly 40%.
Conclusion
Oracle AI Database@Azure brings together the performance of Oracle Exadata and the operational flexibility of Azure into a unified platform.
By leveraging Azure Monitor, Log Analytics, dashboards, and alerts, enterprises can achieve deeper observability, predictive insights, and more coordinated operations. The ability to unify infrastructure and database telemetry, especially through capabilities like Azure Log Analytics for Oracle, transforms how teams manage and optimize their environments.
This approach does more than improve monitoring. It simplifies lifecycle management and strengthens governance, security, and compliance. Ultimately, it positions Oracle AI Database@Azure not just as a migration pathway, but as a foundation for modernization.