Splunk Observability Cloud is used to monitor the health and performance of cloud infrastructure and microservices, providing infrastructure applications and their health insights for security insurance as well as correlating performance anomalies.
Regarding the feature sets of Splunk Observability Cloud, the primary benefit is real-time infrastructure monitoring. Additionally, APM (application performance monitoring) is provided, which helps to obtain intelligent alerting with the aid of log and metric correlation available in the portal. There is also an AI-driven analytics add-on.
Regarding the detector functionality of Splunk Observability Cloud, the intelligent alerting mechanisms in the observability platform have been observed and implemented. These help to obtain continuous metrics with predefined conditions that are automatically generated whenever the performance threshold has increased or when high volumes of traffic or anomalous behavior have been identified by the detectors. This helps to achieve benefits such as proactive monitoring, real-time alerting, and faster instant responses.
This has helped regarding the monitoring of blind spots by improving the inline visibility of infrastructure with Splunk Observability Cloud, which helps to correlate metrics, traces, and logs from a single platform, enabling the identification of issues that might go unnoticed within a single system. It also helps to reduce troubleshooting time.
In Splunk Observability Cloud, the AI analytic engine detects anomalies and prioritizes critical issues, which helps with prioritization as the main concern is to get alerts resolved within a timeframe to improve MTTR. It also accelerates root cause analysis by correlating metrics and traces within the dependencies.
For example, in a case where an application response gradually increased over a certain period, increasing CPU and memory consumption, which was normal, the AI analytics capabilities detected the anomaly based on historical behavior and generated an alert before users monitored these dashboards. This had a noticeable impact, enabling proactive investigation to reduce troubleshooting time.
The problem that was to be fixed with the help of the RCA detections is that Splunk Observability Cloud streamlines the entire engine lifecycle, helping to identify the root cause. The AI-powered detection and anomaly detection in Splunk Observability Cloud identify performance issues in real-time, generating alerts before they significantly impact customers, and proactively detecting errors. Engineers can correlate metrics, distributed traces, service maps, and logs to follow the request path and identify issues.
A specific instance where Splunk Observability Cloud identified the root cause across a hybrid environment, which would have typically required manual integration to solve, occurred when users reported an ecommerce application that was loading slowly. A detection was received from the detector indicating that the API response time had increased from the normal baseline threshold. Using RCA analytics tracing, the engineer followed the user request through the application, revealing delays occurring in the database query while correlating metrics, indicating increased CPU and query division. That aspect required troubleshooting. Based on these insights, the team optimized the query response by improving the port sizes, resolving the issue within the time limit.
With regard to visibility into the entire AI stack including LLM performance, GPU utilization, and vector stores, this has changed the ability to manage the nondeterministic nature of AI applications while maintaining cost and quality standards. Traditional applications give the same input and the same output, while AI applications evaluate quality and relevance based on dynamic perspectives and the availability of data, focusing on response qualities, latencies, and token usage. Changes in latency monitoring have been implemented that help generate responses.
The integration of business context in the telemetry has helped to reduce MTTR by fifty percent, which has been the key metric.
The key benefits of Splunk Observability Cloud are related to performance monitoring and service monitoring that provide end-to-end visibility. It offers unified infrastructure and operations, such as Kubernetes and cloud services, all within a single platform, which helps to maintain end-to-end visibility. Furthermore, it provides real-time monitoring that helps to continuously assess the health of applications.
Splunk Observability Cloud has helped improve operational performance and company resilience, as members have access to all in one place, which significantly reduces MTTR. Additionally, it provides instant responses with the intelligent detectors mentioned, such as the AI-driven anomaly detection, which aids in detecting alerts or performance issues that degrade over time.
MTTD has been reduced by thirty percent as of the current date.
Regarding time to value with Splunk Observability Cloud, the biggest value regarding performance was that the monitoring system did not have to be built from scratch. This is key because within a short period after deployment, actionable dashboards, intelligent alerts, and end-to-end visibility were available.
Enhancements can be made to Splunk Observability Cloud dashboard, particularly the widgets that can help display ROI metrics and streamline setup for detection tuning. These two points are key concerns that should be highlighted.
Splunk Observability Cloud has been used for seven to eight months.
Splunk Observability Cloud is stable when it comes to visibility aspects.
Splunk Observability Cloud would be assessed as a nine out of ten for helping the organization scale.
The tech support of Splunk would be rated as a nine on a scale of one to ten.
Prior to using Splunk Observability Cloud, no different monitoring product was used.
The experience with lowering the cost of unplanned digital downtime using Splunk Observability Cloud shows that while managing critical incidents in the past few weeks, it has helped reduce downtime by providing timely detections using the AI detection-driven mechanism.
The deployment was done in-house, and support was available during the setup process.
A specific instance where Splunk Observability Cloud identified the root cause across a hybrid environment, which would have typically required manual integration to solve, occurred when users reported an ecommerce application that was loading slowly. A detection was received from the detector indicating that the API response time had increased from the normal baseline threshold. Using RCA analytics tracing, the engineer followed the user request through the application, revealing delays occurring in the database query while correlating metrics, indicating increased CPU and query division. That aspect required troubleshooting. Based on these insights, the team optimized the query response by improving the port sizes, resolving the issue within the time limit.
It took approximately two months to build Splunk Observability Cloud from scratch.
No other options or solutions available in the market have been evaluated, as Splunk or Cisco tool stack is already being used. Therefore, the decision was made to go with Splunk Observability Cloud, as the native tools are inbuilt and work well with the systems.
The ability to enrich data with custom metrics in Splunk Observability Cloud is managed by the administration team, and there is no direct involvement in that aspect.
My impressions of Splunk for helping the organization focus on business-critical initiatives show that it is on the right track, with several features including AI-driven analytics and detection, which are quite helpful in reducing downtime, making them key features.
Organizations looking for an end-to-end observability platform with faster root cause analysis, improved uptime, real-time dashboards, alerts, and scalability monitoring should consider the Splunk Observability Cloud solution. This review is rated as a nine out of ten.