the less you understand it.
Why PULSAR
The intelligence layer for your engineering
Tools you use show a piece — one domain, one phase, one component. None of them show how your system behaves holistically. PULSAR does.
The challenge
Why modern software programs struggle
ROI calculator
What is your program cost of complexity?
Adjust your program parameters and compare direct costs of system-level bug analysis today versus the expected savings with PULSAR.
Your saving with PULSAR
EUR 113M
Across 1 program · 90% reduction in system-level bug analysis effort
Direct costs · system-level bug analysis only
Today: cost of complexity
Program inputs · system-level bug analysis
With PULSAR: recoverable savings
Direct savings at 90% reduction in system-level bug analysis effort
Causal graph traversal replaces manual log inspection. Root cause isolated, not searched for.
Cross-domain bugs traced to origin in under one day. Development continues; sprints don't stop.
Recovered capacity redirected from firefighting to planned delivery.
Today: direct costs for system-level bug analysis & localization effort
Cost per bug
EUR 180kCost per program for bug analysis
EUR 126MTotal across all programs for bug analysis
EUR 126MWith PULSAR: direct costs for system-level bug analysis & localization effort
Cost per bug
EUR 18kCost per program for bug analysis
EUR 13MTotal across all programs for bug analysis
EUR 13MIndirect costs
- Delayed launches - Each month of delay can cost millions in lost revenue.
- Recall risk - Software-related recalls can reach EUR 3M - EUR 50M+ per campaign.
- Quality degradation - Undetected cross-domain bugs lead to customer-facing failures.
- Engineering inefficiency - Up to 70% of time spent on debugging instead of innovation.
- Expert bottlenecks - Critical knowledge trapped in 2-3 senior engineers.
Structural benefits
- Earlier anomaly detection — behavioral deviations detected before they become incidents, reducing retest cycles and SOP risk.
- Supplier escalation precision — one targeted ticket to the responsible component owner, replacing weeks of multi-party coordination.
- Launch readiness evidence — fact-based quality gates from the Digital Twin, not manually compiled status reports.
- Durable system knowledge — every resolved incident captured in the knowledge graph, building organizational memory across model years.
ROI breakdown
How PULSAR delivers these savings
Direct costs and savings apply to system-level bug analysis only. We assume a 90% reduction in investigation effort — from causal graph traversal instead of manual log inspection.
With PULSAR: recoverable savings
Direct savings at 90% reduction in system-level bug analysis effort
Causal graph traversal replaces manual log inspection. Root cause isolated, not searched for.
Cross-domain bugs traced to origin in under one day. Development continues; sprints don't stop.
Recovered capacity redirected from firefighting to planned delivery.
Indirect costs
- Delayed launches - Each month of delay can cost millions in lost revenue.
- Recall risk - Software-related recalls can reach EUR 3M - EUR 50M+ per campaign.
- Quality degradation - Undetected cross-domain bugs lead to customer-facing failures.
- Engineering inefficiency - Up to 70% of time spent on debugging instead of innovation.
- Expert bottlenecks - Critical knowledge trapped in 2-3 senior engineers.
Structural benefits
- Earlier anomaly detection — behavioral deviations detected before they become incidents, reducing retest cycles and SOP risk.
- Supplier escalation precision — one targeted ticket to the responsible component owner, replacing weeks of multi-party coordination.
- Launch readiness evidence — fact-based quality gates from the Digital Twin, not manually compiled status reports.
- Durable system knowledge — every resolved incident captured in the knowledge graph, building organizational memory across model years.
Market positioning
PULSAR learns from the only source that never lies — runtime behavior.
In complex systems, specifications, architecture documentation are incomplete, outdated, or inaccessible. Runtime behavior is the one input that always reflects what the system actually does.
Today
- Often too complex to be captured in a single document
- Reflect design intent, not implemented reality
- Fragmented across 100+ suppliers per program
- Updated reactively — always lags implementation
- Siloed per supplier, no cross-domain view
- Diverges from the real system
- Fragmented supply chains for software
- Causing limited source code visibility across partners
- Automated cross-delivery analysis is not possible
These problems are structural. Even with perfect documentations and processes, the integration problem will percist. In software-defined systems, converging software and hardware will always create unforseen anomalies.
Without PULSAR
1–4 weeks
Average time to root cause a cross-domain incident manually
With PULSAR
< 1 day
Same incident — AI causal analysis from runtime data only
Why it's possible
No documentation needed.
PULSAR reconstructs system understanding from the running system itself — the one source that always exists.
Why now
📈 Complexity outpaces humans
More features and suppliers mean more hidden dependencies than any one team can track by hand.
🧭 Data without a map
Logs and traces pile up, but they rarely answer “what caused this?” across domains and releases.
🧠 Knowledge stuck in heads
When a few experts are busy, everyone waits — tribal knowledge does not scale with the program.
⏱️ Weeks lost to firefights
Cross-domain bugs still burn calendar time; every week is budget and momentum you do not get back.
🛠️ Tools do not stitch the story
Each toolchain owns a slice of the V — none holds the runtime graph that explains system behaviour end to end.
🚀 First movers compound learning
Programs that capture causality early build durable digital twin memory; late starters replay the same fires.