It is the most common ritual in enterprise software procurement: The Spreadsheet. A dense, 200-row matrix listing every conceivable feature, from "Sankey Diagrams" to "Custom JSON Exports," sent to five vendors who must dutifully mark "Yes," "No," or "Partial" for each item.
The logic seems sound: If we are paying $50,000 a year for software, we should get the most capable tool possible. The vendor with the most "Yes" checks wins. It is a rational, defensible, and objective process.
It is also the primary reason why enterprises end up with "Zombie Software"—powerful, expensive platforms that no one actually logs into.
The mistake lies in a fundamental misunderstanding of user psychology: Capability does not equal Utility. In fact, beyond a certain threshold, they are inversely correlated. The more features you force into a user interface to satisfy the "Yes" column, the more friction you introduce to the daily workflow.

The "Just in Case" Fallacy
When stakeholders build requirements lists, they operate in "Just in Case" mode. A marketing analyst might say, "Well, I don't use predictive forecasting now, but I might need it next year, so let's add it as a mandatory requirement."
Multiply this by ten stakeholders, and you have a Frankenstein's monster of requirements. The procurement team then seeks a vendor that satisfies all of these hypothetical needs.
The problem is that the software that satisfies 100% of these edge cases is invariably complex, heavy, and difficult to learn. It requires multiple clicks to do simple things because the navigation is crowded with advanced features that 95% of users will never touch.
"We bought a Ferrari to drive to the grocery store, and now everyone is complaining that it's too hard to park."
The 80/20 Rule of Feature Usage
Research consistently shows that in most enterprise software, 80% of users use only 20% of the features. [1] [2]
When you prioritize "Feature Parity" (making sure the new tool does everything the old tool did, plus everything the competitors do), you are optimizing for the 80% of features that are rarely used, often at the expense of the 20% that are critical.
For example, in Business Intelligence:
- Viewing a dashboard on mobile
- Filtering by date range
- Exporting a summary to PDF/Excel
- R-script integration for custom stats
- Pixel-perfect print layout design
- Complex multi-pass SQL queries
If the tool that wins the RFP excels at the "Hypothetical 80%" but is clunky for the "Critical 20%," adoption will fail. Users will revert to Excel, and your expensive software will become shelfware.
A Better Way: Workflow-Based Procurement
Instead of a feature checklist, evaluate software based on Workflow Friction.
Ask vendors to demonstrate specific, high-frequency user journeys:
- "Show me how a sales manager checks their team's quota attainment on their phone while in a taxi."
- "Show me how a marketing lead creates a simple weekly report without asking IT for help."
- "Show me how long it takes for a new user to find the 'Revenue' dashboard from the home screen."
Count the clicks. Measure the load times. Watch for confusing terminology. These "micro-frictions" are what actually determine adoption, not whether the tool supports "Box-and-Whisker Plots."
This approach aligns with the core principles discussed in our guide on How to Choose BI Software, where we emphasize that the "Best" tool is the one that actually gets used.
The Courage to Say "No"
The hardest part of this strategy is political. It requires the procurement lead to look a stakeholder in the eye and say, "We are not going to prioritize that advanced feature you asked for, because it makes the tool too complex for the other 500 users."
This is uncomfortable, but it is the job. Your goal is not to make every single stakeholder happy during the selection process; it is to ensure the organization gets value from the investment over the next three years.
Summary: Stop buying software for the power users who might exist. Start buying software for the real users who do exist. Prioritize usability over capability, and friction reduction over feature density.