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.
Which two of the following data categories appear in an AppStack view? (Choose two.)
AppStack is designed to provide a 'top-to-bottom' visual representation of the IT infrastructure layers that support an application. According to the SolarWinds Platform Administrator Guide, the AppStack Environment view automatically maps relationships between specific monitored entities.
The two primary categories that appear in this view are database instances (A) and servers (C). In a typical application stack, the 'Server' represents the physical or virtual hardware, while the 'Database Instance' (monitored via AppInsight for SQL, Oracle, etc.) represents the software layer running on that server. AppStack visually links these so that if a database instance shows a critical status, an administrator can instantly see which server it is hosted on and if there are underlying infrastructure issues. Other common categories include Applications, Transactions, Virtual Hosts, Clusters, and Volumes.
NetFlow (Option B) is a traffic analysis technology used in the NetFlow Traffic Analyzer (NTA) and is generally not a primary 'entity' category in the standard AppStack environment map. SNMP Pollers (Option D) are the backend mechanisms used to collect data; they are a configuration component rather than a logical infrastructure entity that would be represented as a layer in an application dependency stack.
Which two of the following statements apply to predefined alerts on SolarWinds Hybrid Cloud Observability (HCO)? (Choose two.)
Predefined alerts (out-of-the-box alerts) come built into Hybrid Cloud Observability to provide immediate value. According to the SolarWinds Platform Alerting Guide, these alerts have specific behaviors regarding modification.
Default Email Recipients (A): Many predefined alerts include a 'Send an Email' action by default. However, for these to work, an administrator must first configure the global SMTP settings and ensure that 'Default Recipients' are defined, or the alert will have no destination for its notifications.
Conditions cannot be directly edited (D): To protect the integrity of the built-in logic, the platform often prevents users from directly overwriting the trigger and reset conditions of a predefined alert. Instead, the recommended workflow is to 'Duplicate and Edit,' allowing the user to create a customizable copy of the alert while keeping the original out-of-the-box version intact for reference.
Option B is incorrect as SolarWinds does not automatically use the registration email for monitoring notifications. Option C is generally incorrect because while conditions are often locked, administrators are usually allowed to add or modify actions (like adding a specific email address) to a predefined alert to make it functional for their specific environment.
A user is building a PerfStack project to troubleshoot an issue with an application. The user is unable to find data for the storage entities that the application accesses beyond application status. Which two of the following reasons explain this discrepancy? (Choose two.)
PerfStack is a cross-stack data correlation tool, but its visibility is constrained by the underlying data collection modules and user security settings. According to the PerfStack Troubleshooting Guide, there are two primary reasons why specific entity data (like Storage) would be missing:
Product Not Installed: Performance data for deep storage metrics (like LUN latency, Array IOPS, or Pool capacity) requires the Storage Resource Monitor (SRM) module or the equivalent HCO storage licensing tiers. If only Server & Application Monitor (SAM) is installed, the user will see the application status, but the specific storage back-end metrics will not be available for selection in the PerfStack pallet because the 'collector' for that data doesn't exist.
Account Limitations: SolarWinds uses Account Limitations to restrict user access to specific parts of the infrastructure. If a user account is limited to 'Department = Sales' or 'Vendor = Cisco,' and the storage entities do not meet those criteria, those entities will be filtered out of the search results in PerfStack. Even if the data exists in the database, the platform security layer prevents the user from 'finding' or displaying it to ensure data privacy and multi-tenant security.
What is an AlertStack cluster?
AlertStack is a specialized AIOps feature within Hybrid Cloud Observability (HCO) designed to simplify incident response. According to the SolarWinds HCO Alerting documentation, an AlertStack cluster is an autogenerated grouping of related active alerts on related entities.
The primary goal of clustering is to reduce 'alert fatigue.' Instead of presenting a technician with twenty individual alerts (e.g., one for high CPU on a server, one for an application failure, and three for slow database response), AlertStack analyzes the relationships and dependencies between those entities. If the platform determines that the alerts are part of a single root-cause event---such as a storage array failure impacting multiple virtual machines and their applications---it automatically clusters them into a single visual timeline. This clustering is autogenerated by the platform's machine learning engine based on the AppStack dependency map; it does not require a user to manually group the alerts. This allows the IT team to identify the 'blast radius' of an incident and focus on the primary failure point rather than triaging dozens of symptoms individually.
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.
