Before entering the discussion, it is necessary to emphasize that the goal of this series of articles is not to question the value or capability of the prominent IT infrastructure monitoring tools. Many of these solutions have been used in various organizations for years and play an important role in monitoring and managing IT environments. What is examined in this series of articles is more of an analytical look at some limitations and challenges that can become problematic for organizations. Therefore, if you intend to purchase SolarWinds software, we suggest that before making a decision, you also study the series of articles on dissecting SolarWinds.
It is 2:00 a.m. A critical alert is triggered, indicating performance degradation in an essential service, and a NOC engineer hurriedly logs into SolarWinds. Instead of finding a clear path toward analysis, however, they are confronted with a flood of disconnected alerts, multiple tabs, and graphs that are not naturally correlated with one another. At the very moment when every second increases Mean Time to Resolution (MTTR), the analyst is forced to move between different modules and search through a sea of raw data in an attempt to find a clue—a familiar experience that often leads to alert fatigue and significant context switching.
The problem goes far beyond a cluttered user interface. Its roots lie in the legacy and modular architecture of the Orion platform. Over the years, SolarWinds has evolved by adding separate modules, and as a result, data is stored and presented in independent silos. The absence of a unified topological model and event correlation capabilities that remain limited to relatively simple rules often means that a straightforward switch-port failure can generate dozens of unrelated alerts across upstream services. Under these circumstances, the burden of correlating and interpreting information is effectively transferred to the operator.
The purpose of this article is to illustrate why escaping this maze of raw data requires more than cosmetic improvements to the user interface—it requires architectural change. It also explores how modern platforms such as Moein Monitoring Platform, through automated event correlation, service dependency modeling, and a true Single Pane of Glass, can transform confusion into operational insight and return valuable incident-response time to operations teams.
One of the primary reasons for operational inefficiency in SolarWinds lies in the way information is presented and in its page-centric architecture.
Modern monitoring platforms are increasingly designed around the principles of intelligent data aggregation and contextual access. Orion, however, remains largely built on legacy WebForms and traditional navigation patterns. Even configuring a simple CPU alert often requires navigating through multiple menus and forms that reflect an earlier generation of application design.
During incident analysis, this architectural weakness becomes particularly apparent.
SolarWinds presents information through separate components such as:
To assemble a complete picture, operators must constantly move between these pages. This process places additional pressure on working memory because users are forced to perform correlation manually.
This fragmentation has two important consequences.
Valuable investigation time is spent clicking through menus, waiting for pages to load, and searching for information instead of focusing on resolving the incident itself.
Relationships between performance metrics and operating system errors are often recognized only after delays, increasing the likelihood of human error during troubleshooting.
A clear example illustrates the issue.
Suppose a core switch becomes unavailable.
In many modern monitoring platforms, the operator receives a single incident that clearly identifies the root cause. In SolarWinds, however, the lack of dependency-based event correlation frequently produces dozens of alerts for downstream services, resulting in an alert storm.
At precisely these moments, the centralized database—the backbone of the entire platform—may experience I/O bursts and locking conditions caused by large volumes of writes, particularly in environments using SQL Server Standard or default configurations.
The result is predictable:
Rather than presenting unified insight, SolarWinds often behaves more like a repository of raw data, leaving the operator responsible for connecting isolated pieces of information.
To configure a CPU threshold for a node, an operator typically follows a navigation path similar to the following:
Settings
→ All Settings
→ Thresholds & Polling
→ Manage Thresholds
→ Node Thresholds
→ Edit Node
→ CPU Threshold
This process usually requires seven to nine clicks and, because it is not contextual, forces the user to leave the Node page entirely.
Even in more recent versions of the Orion Platform, including version 2023.2, this workflow has remained largely unchanged.
For operational teams performing repetitive daily tasks, this high-click workflow increases cognitive load and ultimately reduces response speed.
By contrast, more modern monitoring platforms often allow thresholds to be configured directly from the node's page with only two or three clicks.
The siloed structure of SolarWinds is one of the principal reasons operational teams experience fatigue.
Instead of receiving a unified operational picture, users are required to gather information from multiple modules.
Consider a SQL performance degradation alert.
In many SolarWinds deployments, an engineer may need to open at least four separate tabs:
Collecting only the initial information can require fifteen to twenty clicks and consume three to five minutes.
During this process, every newly loaded page interrupts the operator's mental context, forcing them to retain information from previous screens while continuing the investigation.
Modern platforms—including Moein Monitoring Platform—have increasingly moved away from this island-based architecture.
In the same SQL performance scenario, Moein's root-cause analysis and technology dependency capabilities provide a centralized operational view that can reduce analysis time to less than ten seconds and require minimal interaction, without opening additional tabs.
This is not simply a user interface improvement.
It is an architectural difference:
Raw Data → Insight → Action

SolarWinds Orion imposes a hidden but significant cost on organizations—a cost that never appears on a licensing invoice:
Even during relatively simple incidents, operators frequently need to move between multiple modules—including PerfStack, Syslog, Event Viewer, and SAM—while manually assembling a mental puzzle.
The absence of deep event correlation and the platform's reliance on manual drill-down workflows often cause the tool to slow investigations rather than accelerate them.
By contrast, service-centric architectures found in platforms such as Moein Monitoring Platform demonstrate that monitoring can be both simpler and more focused.
Data is modeled around service dependencies from the outset, and event correlation occurs automatically.
The result is a genuine Single Pane of Glass and a significant reduction in cognitive load.
Where SolarWinds primarily generates data, modern platforms increasingly generate insight—and this is precisely where the architectural gap becomes most apparent.