The SolarWinds Observability Self-Hosted Fundamentals exam validates your ability to deploy, configure, and manage SolarWinds observability solutions in self-hosted environments. This certification is ideal for IT professionals, system administrators, and DevOps engineers who work with SolarWinds platforms and want to demonstrate foundational competency as a SolarWinds Certified Professional. This landing page provides a clear study roadmap, topic breakdown, and practical preparation strategies to help you pass with confidence.
Use this topic map to guide your study for SolarWinds Observability-Self-Hosted-Fundamentals within the SolarWinds Certified Professional path.
The exam combines knowledge-based and scenario-driven items to assess both conceptual understanding and practical decision-making in real-world SolarWinds deployments.
Questions progress in difficulty and require you to connect concepts across deployment, monitoring, and troubleshooting workflows rather than memorize isolated facts.
An effective study plan spreads learning across the six core topics over 4-6 weeks, with hands-on practice and review cycles. Allocate study time proportionally to topic weight and your current knowledge gaps, then reinforce weak areas with targeted practice questions.
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SolarWinds Platform Architecture and Deployment and Node Management typically account for 30-35% of exam content combined, as these foundational skills are critical for any self-hosted implementation. Alerts and Reports each represent 20-25% of the exam, while Customization and User Experience and Troubleshooting Tools make up the remaining 15-20%. Your study time should reflect these proportions, with extra focus on deployment and node management concepts.
In practice, you begin with Platform Architecture and Deployment to set up your environment, then use Node Management to add systems for monitoring. Once nodes are active, you configure Customization and User Experience to tailor dashboards for your team, establish Alerts to notify on issues, and build Reports to track performance trends. Troubleshooting Tools are used throughout to diagnose and resolve any issues that arise. Understanding these connections helps you answer scenario questions that test cross-topic reasoning.
Hands-on experience with at least one self-hosted SolarWinds deployment is highly beneficial. Prioritize labs in Node Management (adding and configuring nodes), Alerts (creating and testing alert rules), and Reports (building custom reports with filters). If you have limited lab access, focus on configuration tasks that directly appear in exam scenarios, such as setting alert thresholds and interpreting diagnostic logs.
Many candidates confuse alert escalation policies with notification channels, or misunderstand how custom properties affect node discovery. Others rush through scenario questions without fully analyzing the system state described. A frequent error is assuming all thresholds are absolute rather than relative or baseline-dependent. Slow down during practice tests, re-read scenario details, and review explanation text even for questions you answer correctly.
In your last week, take a full-length timed practice test to simulate exam conditions and identify any remaining weak spots. Spend 2-3 days reviewing explanations for incorrect answers and revisiting those specific topics. On the final 2-3 days, do quick review passes through flashcards or summary notes rather than deep study, and ensure you are well-rested the night before the exam. Avoid cramming new material; focus on reinforcing concepts you have already learned.
Web console users are complaining of widgets moving within the web console view. What is causing this movement?
Layout instability in the SolarWinds Web Console is almost always a result of overlapping permissions on shared views. According to the SolarWinds Platform Administrator Guide, summary views (dashboards) are often shared across entire departments or user groups.
The cause of widgets 'moving' unexpectedly is typically that users have edit view rights and are editing views used by multiple users (D). In SolarWinds, if a view is assigned to multiple people and those people have the 'Edit View' permission, any change made by one user---such as dragging a widget to a different column, adding a new resource, or removing an old one---is a global change to that view's definition in the database.
When User A rearranges the dashboard to suit their screen or preference, User B will see those changes the next time their page refreshes. This creates a 'tug-of-war' scenario where different users keep moving widgets back and forth. To prevent this, administrators should follow the principle of least privilege: remove 'Edit View' rights from standard users and only allow a small number of designated 'View Administrators' to make changes. If individual personalization is required, the administrator should create unique, personal views for each user or group so that their edits do not impact the wider organization.
Which three of the following user accesses are available when restricting access to reports on SolarWinds Hybrid Cloud Observability (HCO)? (Choose three.)
Access control for reporting in Hybrid Cloud Observability (HCO) is highly granular, allowing administrators to define exactly what a 'standard' (non-admin) user can do within the reporting module. According to the SolarWinds Platform User Account Management guides, three distinct restrictions can be applied:
Preventing Access to All Reports (A): By setting a 'Report Limitation' on the user account to 'No Reports,' the entire module is effectively hidden from the user.
Preventing Access to Reports by Other Users (B): This is a privacy and security feature. Administrators can configure report permissions so that users can only see the reports they have created or those explicitly shared with them, hiding the potentially sensitive custom reports created by other teams.
Preventing Access to the Report Manager (C): The 'Report Manager' is the administrative interface used to create, schedule, and delete reports. By removing the 'Manage Reports' permission from a user account, you allow them to view and run existing reports but prevent them from accessing the management tools required to modify them.
Option D is logically incorrect because if a user has access to reports at all, they must be able to see the ones they are authorized for; 'preventing access to their own reports' while allowing others would not be a standard security use case.
Which benefit does Anomaly-Based Alerting add to the Hybrid Cloud Observability (HCO) alerting engine?
Anomaly-Based Alerting represents a shift from static thresholds to behavioral analysis in the HCO platform. According to the SolarWinds HCO Alerting Engine documentation, this feature uses machine learning to establish a 'baseline' for specific metrics like CPU load or memory usage over a period of 7 to 30 days.
The primary benefit is that it analyzes entity behavior and triggers an alert only when a metric deviates significantly from its historical 'normal' for that specific day and time. For example, if a server traditionally runs at 90% CPU during a Sunday night backup, a static 80% threshold alert would trigger a 'false positive' every week. Anomaly-based alerting learns this behavior and will only fire an alert if the CPU hits 90% on a Tuesday morning when the normal load is only 20%.
This reduces alert noise by focusing on true anomalies rather than simple threshold violations. It does not 'remove the requirement for trigger conditions' (Options B and C); instead, it replaces a static numerical threshold with a dynamic, machine-learned threshold. The administrator still defines which entities to monitor and how sensitive the anomaly detection should be.
Which two of the following statements apply to SolarWinds Hybrid Cloud Observability (HCO) Platform? (Choose two.)
The SolarWinds Hybrid Cloud Observability (HCO) Platform is designed for maximum deployment flexibility to accommodate diverse enterprise security and infrastructure requirements. According to the SolarWinds Platform Installation and Upgrade Guide, the platform's architecture is fundamentally self-contained.
Operation without an internet connection (A): This is a critical requirement for many government, military, and high-security financial environments. The platform is capable of 'air-gapped' operation, where all polling, data processing, and visualization occur within a private network. While features like 'Platform Connect' (for cloud-based AI) may require a connection, the core monitoring, alerting, and reporting functions remain fully operational without any external internet access.
Deployment on-premises or in the cloud (B): HCO is truly hybrid. It can be installed on physical hardware or virtual machines within a local data center, or it can be deployed within a Virtual Private Cloud (VPC) on platforms like AWS or Azure. This allows organizations to maintain their monitoring infrastructure alongside their managed assets, regardless of where those assets reside.
While HCO provides AIOps and machine learning (Option C), this is a feature of specific licensing tiers and configuration states rather than a fundamental 'platform' characteristic that defines its deployment capability in the same way its offline and hybrid nature does.
A performance issue on a network is being troubleshooted and needs customization of metrics and entities to be viewed during troubleshooting. Which tool combination / no combination would allow this to happen?
The SolarWinds Platform provides distinct tools for visualizing different aspects of environmental health and performance. AppStack is primarily an entity-relationship mapping tool. According to the SolarWinds SAM Administrator Guide, 'The AppStack Environment view provides a powerful layer of troubleshooting visibility by exposing all participating objects in your environment, as well as their relationships to one another'. It allows administrators to customize which entities (nodes, applications, volumes, etc.) are visible and how they are grouped to show dependencies.
Conversely, PerfStack (Performance Analysis) is the engine used for metric correlation. As stated in the SolarWinds Platform Administrator Guide, PerfStack allows users to 'drag and drop performance metrics from multiple entities onto a single chart to correlate data over time'. While AppStack excels at showing what is connected, PerfStack excels at showing how specific metrics (CPU, Latency, IOPS) across those connected entities interact. Therefore, a combination is required where AppStack handles the entities and PerfStack handles the metrics. Specifically, you use AppStack to identify the scope of entities involved in a performance bottleneck and then transition those entities into a PerfStack project to perform a deep-dive analysis of the metrics. This modular approach ensures that troubleshooting is both contextually aware (via AppStack) and data-driven (via PerfStack).
