SolarWinds Certified Professional Observability-Self-Hosted-Fundamentals Exam Questions and Answers PDF

PerfStack(Performance Analysis) projects are highly versatile troubleshooting assets that can be shared and integrated across the SolarWinds Platform. According to theSolarWinds Platform Administrator Guide, once a correlation project is built—linking metrics like CPU, Latency, and IOPS—it can be utilized in several ways.

Add as a menu bar item (A): A specific PerfStack project that is used frequently (such as "Core Switch Health") can be saved and added directly to the main navigation menu. This allows users to access the troubleshooting dashboard with a single click from anywhere in the console.

Share to non-web console users (B): PerfStack projects can be shared via a unique URL. This "Public Link" feature allows stakeholders who do not have a SolarWinds account (such as third-party vendors or executives) to view the real-time correlation data in a read-only browser view.

Show as a widget in a view (D): PerfStack projects can be embedded into Summary Views or Node Details pages as awidget. This provides context-sensitive performance data right alongside the standard node information, allowing for "at-a-glance" correlation without leaving the main dashboard.

While PerfStack provides visual data, it is typically treated as a dynamic, interactive "Project" or "Widget" rather than a static "dashboard graphic" (Option C) in the classic sense of a standalone image or icon.

Modern Dashboardsrepresent a significant evolution over the legacy "Classic" summary views in the SolarWinds Platform. According to theSolarWinds Platform Administrator Guide, there are several architectural differences designed to improve performance and flexibility.

Define visible data using SWQL (D): Unlike classic dashboards that rely on a fixed "Data Selection" wizard or pre-built resources, modern dashboards allow administrators tohand-edit SWQL (SolarWinds Query Language) queriesdirectly within the widget configuration. This provides near-infinite flexibility to filter and display data in ways that were previously impossible without custom coding.

Configure refresh rates (C): Classic dashboards typically rely on the global web console refresh interval (often 5 minutes) or a full page reload. Modern dashboards introduce the ability toset individual refresh intervalsfor each widget (from 1 second to 24 hours), or configure a "Modern Widget Refresh" default for the entire dashboard. This ensures that critical real-time data is updated more frequently than static inventory data on the same page.

While "NOC mode" (Option B) and "Account Limitations" (Option A) are compatible with the broader SolarWinds environment, they are standard platform features that have existed in classic views for years and are not "unique" new settings specific only to the modern dashboarding engine.

In advanced alerting scenarios, particularly with performance metrics like disk fragmentation or temperature, the "Trigger Condition" and "Reset Condition" often require different thresholds to prevent "flapping"—a state where an alert rapidly toggles between triggered and reset states because the metric is hovering right at the threshold line. According to theSolarWinds Platform Alerting Guide, while the default behavior is to reset when trigger conditions are no longer true (Option D), this would reset the alert as soon as fragmentation hit 29.9%.

To satisfy the specific requirement where the issue is only "resolved" at 10%, a customReset Conditionmust be defined. By selecting "set reset condition to reset when condition is below a set percent," the administrator can explicitly define a separate value ($10\%$) from the trigger value ($30\%$). This creates a "deadband" or hysteresis effect, ensuring the alert remains active and visible until the database maintenance has successfully reduced the fragmentation to the desired healthy level. This configuration is essential for AppInsight applications where returning to a "not-critical" state (e.g., 29%) does not necessarily mean the underlying performance bottleneck has been sufficiently remediated.

Network Discovery is an automated process to scan subnets and import new infrastructure. However, the discovery engine includes logic to prevent duplicate entries and ignore non-relevant assets. According to theSolarWinds Platform Administrator Guide, if specific devices are missing from the results, the most common administrative cause is theDiscovery Ignore List.

The "Ignore List" is a database of IP addresses or MAC addresses that the platform has been explicitly told to skip. This often happens if a device was previously discovered but the administrator chose "Ignore this node" during the import phase. The system remembers this choice to prevent the device from reappearing in every subsequent scan. Additionally, the platform automatically ignores any node that isalready presentin the "Manage Nodes" list to avoid creating redundant monitoring objects.

While a timeout (Option C) or incorrect polling method (Option D) could cause a node to fail to respond with its full metadata, the device would typically still appear in the discovery results as a "Generic" or "ICMP-only" device rather than being skipped entirely. Only theIgnore Listor pre-existing status causes a device to be excluded from the discovery results table during a scan of a valid subnet.