KartaSoft at IPCE 2026
Professor Imre Bartos of the University of Florida will present the research behind KartaSoft's anomaly detection approach and explain why it works.
The KartaSoft team will be available throughout the conference.
21–25 September, 2026 - BMO Centre at Stampede Park, Calgary
Close the transient blind spot
Operational transitions change what normal pipeline behaviour looks like.

Compressor reconfigurations, maintenance, demand shifts, and equipment changes can cause conventional monitoring systems to raise thresholds or suppress alarms. These responses reduce sensitivity precisely when an integrity threat may be developing alongside a legitimate operational event.
KartaSoft’s IPCE 2026 paper presents Operational Event Governance, a structured method for adapting expected detection baselines during operational change while preserving sensitivity to concurrent integrity threats.
Join the waiting list to gain access to the scientific paper, available after the conference
The reported results come from a purpose-built simulation of a 2,500 km gas transmission network.
Presented at IPCE 2026
Operational Event Governance for Pipeline Integrity Monitoring:
Closing the Transient Blind Spot

Prof. Dr. Imre Bartos
University of Florida
Chief Scientist, KartaSoft
Session:
9/24/2026
10:30 AM - 12:00 PM
Digital Twins, AI/ML & Advanced Analytics in Operation - Part B
The paper examines
→ Why monitoring sensitivity degrades during operational transitions
→ The limits of static thresholds and alarm suppression
→ A two-stage, topology-aware monitoring architecture
→ How event records can govern changes to expected behaviour
→ The use of physics residuals for diagnostic interpretation
→ Detection and precision results from five years of simulated operation
→ Operational requirements, limitations, and the path to operator-data validation
When operations change, the baseline can become unreliable
Pipeline monitoring depends on a useful definition of expected behaviour.
During stable operation, pressure, flow, compressor performance, cathodic protection, and related channels may follow patterns that a monitoring system can learn.
An operational event changes those patterns.
The resulting deviations can resemble an integrity problem even when the system is operating as intended.
Conventional monitoring commonly responds in one of two ways:
1
Raise the alarm threshold
This reduces nuisance alarms, while smaller developing threats become harder to detect.
2
Suppress alarms during the event
This removes operational noise from the queue, while also creating a period with reduced monitoring coverage.
Both approaches create a transient blind spot.
The operator still needs to answer a critical question:
Is this an expected operational transition, or is an integrity threat developing at the same time?
Validation environment
2,500 km
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Gas transmission network
150
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Connected network nodes
Five years
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Of simulated operating data
600
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Operational and integrity events
Performance during operational transients
At the 95th percentile anomaly-score threshold:
| Monitoring approach | Integrity threats detected during transients | Precision |
| Governed model | 100% | 14% |
| Ungoverned model | 33% | 8% |
| Conventional monitoring with alarm suppression | Effectively 0% | Less than 1% |
The governed model maintained detection sensitivity during operational transitions
Fewer false alarms than the ungoverned approach
Strongest event-type performance for compressor degradation
Lower detection performance for some slow leaks and gradual instrument drift
Diagnostic value from physics residuals that helped indicate likely underlying mechanisms
What this could change for pipeline teams
Maintain monitoring coverage during operational events
Operational transitions no longer have to create automatic periods of reduced sensitivity.
Event context can be incorporated directly into expected behaviour, allowing unexplained deviations to remain visible.
Improve anomaly triage
An alert can include the operating event, affected measurements, network relationships, and relevant physics residuals.
This gives integrity and operations teams a clearer starting point for review.
Reduce avoidable alarm noise
Legitimate operating changes can be accounted for through governed corrections rather than broad alarm suppression.
The objective is a smaller queue with a higher concentration of conditions that warrant attention.
Preserve a reviewable baseline history
Teams can record which event changed the expected baseline, when the correction applied, and which measurements were affected.
This creates a clearer evidence trail for engineering review, model governance, and management of change.
Support tiered alarm handling
The paper proposes a tiered structure that separates high-confidence alarms from conditions requiring continued monitoring.
Operational-event context can help teams decide which deviations require immediate escalation and which warrant observation as the transition develops.
This research advances KartaSoft’s Baseline Governance foundation

Operational Event Governance is the method described in the 'Operational Event Governance for Pipeline Integrity Monitoring: Closing the Transient Blind Spot' paper.
Baseline Governance is the wider operational capability it supports.
It determines when and how expected behaviour should change as pipeline operations move between configurations, maintenance states, demand regimes, and other legitimate conditions.
Baseline Governance is one of four operational foundations within KartaSoft’s broader consequence-aware pipeline risk intelligence approach.
Built on Physics-Informed AI
KartaSoft’s Physics-Informed Artificial Intelligence, PIAI, combines engineering context, network relationships, operating configurations, observed behaviour, and machine learning.
PIAI supports four connected operational foundations.
Baseline Governance
Interpret a changing condition against the correct operating state.
Consequence Intelligence
Determine what is exposed and how much the condition could matter operationally.
Risk Islands™
Identify connected concentrations of elevated segment risk that should be managed as one operational concern.
Explainability
Show the signals, baseline context, consequence factors, likely mechanism, confidence, and evidence behind each priority.
Together, these foundations help pipeline teams move from changing signals to a defensible order of action.
Detect → Score → Risk Islands → Rank → Prioritize
Know where pipeline risk matters most, what deserves action first, and why.

Hear about the research at IPCE 2026
Operational Event Governance for Pipeline Integrity Monitoring:
Closing the Transient Blind Spot
Session:
9/24/2026
10:30 AM - 12:00 PM
Digital Twins, AI/ML & Advanced Analytics in Operation - Part B
The presentation will cover the monitoring problem, proposed architecture, simulation methodology, detection results, diagnostic approach, operational requirements, and remaining validation work.
Book a 1:1 time with the KartaSoft team in Calgary
The KartaSoft team will attend throughout the conference and will be available for scheduled technical and commercial conversations.
Book a meeting to discuss:
→ The paper’s methodology and results→ Baseline Governance during compressor and maintenance events
→ Event-catalogue requirements
→ SCADA and topology inputs
→ Physics-informed diagnostics
→ Alarm and anomaly-triage workflows
→ Operator-data validation
→ Proof-of-value design
→ Consequence Intelligence and Risk Islands
→ Broader pipeline risk prioritization
KartaSoft
Consequence-Aware Pipeline Risk Intelligence
Built on PIAI:
Baseline Governance → Consequence Intelligence → Risk Islands → Explainability

Know where pipeline risk matters most