Performance Optimization

Beyond Availability: Why Expected Value Is the True Measure of Industrial Performance

Most industrial operators celebrate when a plant achieves 95% availability. But high availability does not guarantee high value. Discover why Expected Value is the missing link between physics and finance.

Jorge Granada
January 15, 2024
8 min read

The Illusion of 95% Availability

Most industrial operators celebrate when a plant achieves 95% availability. But here's the truth: High availability does not guarantee high value.

A compressor can be "available" 98% of the time, yet underperform due to degraded efficiency, poor configuration, or suboptimal scheduling — all while costing millions in lost production.

At Knar, we don't measure success by uptime. We measure it by Expected Value: the probabilistic forecast of financial performance under real-world uncertainty.

The Problem with Traditional RAM Metrics

Reliability, Availability, Maintainability (RAM) studies are essential — but they often stop at physical metrics:

  • 1"Mean Time Between Failures"
  • 2"System Availability"
  • 3"Downtime Hours"

These tell you what happened, not what it cost.

Worse, they create a false sense of security. A system may appear reliable on paper, but if its failures occur during peak pricing windows, the business impact is catastrophic.

Expected Value: The Missing Link Between Physics and Finance

Expected Value integrates:

1

Technical Reality

Failure modes, degradation, maintenance logistics

2

Operational Constraints

Crew availability, spare parts, feed variability

3

Market Dynamics

Commodity prices, demand cycles, contractual penalties

It answers the question: "What is this asset expected to earn over the next year, given all sources of uncertainty?"

This is not speculation — it's simulation. Using tools like AspenTech Fidelis and PDEL®, we build models where every failure mode has a dollar value.

Case Example: Compressor Performance Beyond Uptime

In one project, a client reported 96.2% availability for their gas compression system. Sounds good — until we modeled Expected Value.

We discovered:

  • Degraded compressors were operating inefficiently 40% of the time
  • Maintenance was scheduled during high-demand periods
  • Feed variability caused frequent derates not captured in standard RAM reports

Result:

Despite high "availability," the system delivered only 78% of potential EBITDA.

By optimizing configurations and maintenance timing using stochastic programming, we increased Expected Value by 22%.

How We Build Expected Value Models

Our approach follows five steps:

1

Map the Causal Chain

From equipment failure → system unavailability → production loss → revenue impact (using PDEL®)

2

Integrate Probabilistic Scenarios

Simulate thousands of operational futures

3

Link to Market Data

Apply price curves, contract terms, and risk profiles

4

Validate with Historical Performance

Ensure model fidelity

5

Institutionalize the Metric

Embed Expected Value into decision-making systems (iDSS)

This transforms RAM from a compliance exercise into a strategic tool.

Conclusion: Measure What Matters

In complex industrial environments, simplistic metrics fail. If you're managing assets based on availability alone, you're flying blind.

At Knar, we engineer clarity. We don't report uptime — we forecast value.

And we do it with precision, traceability, and no tolerance for oversimplification.

Ready to move beyond availability?

Let's model your asset's true Expected Value.

Contact Us