Traditional safety assessments are broken.
Impenetrable static documents, full of jargon and hidden single points of failure. Here is how SAFOPS is fixing the industry.
Beyond the Swiss Cheese Model
Move from static failure diagrams to dynamic, real-time barrier verification.
Trace fault sequence pathways
Verify engineered barriers (SSC Class / SIL)
Expose latent failures & missing evidence
SFR-01Target reliability unverified↗
SFR-02No substantiation linked↗
SFR-03Target PFD exceeded — auto-flagged↗
SFR-04Substantiated & verified ✓↗
Click a barrier status to open it in the live demo →
Eight ways a static safety case fails — and what a living one does instead.
1. The "Dead Document" Problem
The Issue:
Safety cases are typically massive, 500-page static PDFs. The moment they are published, they are out of date. When equipment changes, engineers must manually hunt down every text reference across hundreds of pages.
The SAFOPS Solution:
Relational Data. Hazards and barriers are structured data entities. Change a barrier's reliability rating once, and it instantly updates across every fault sequence it protects.
2. The "Blank Page" Bottleneck
The Issue:
Safety teams spend hundreds of hours writing boilerplate hazard documentation, manually structuring tables, and re-entering repetitive failure modes instead of conducting deep analysis.
The SAFOPS Solution:
Air-Gapped AI Copilot. Draft fault sequences, failure modes, and barrier recommendations instantly — online, or on a local engine so proprietary data stays strictly inside your network. Your engineers move from manual scribes to expert reviewers, and every AI suggestion is queued for a person to accept.
3. Poor Stakeholder Buy-In
The Issue:
Safety cases are written by safety engineers for regulators, filled with dense jargon. Operations staff and management often cannot understand them, leading to a poor safety culture on the shop floor.
The SAFOPS Solution:
Intuitive Bowtie Visualisation & Stakeholder Views. We translate complex fault sequences into clean, intuitive diagrams. Anyone can look at the map and immediately understand: what goes wrong, what stops it, and what happens if it fails.
4. Hidden Single Points of Failure
The Issue:
When hazards are listed in flat Word tables, it is easy to accidentally rely on the same utility (e.g., electrical power) for five different independent barriers, creating a hidden single point of failure.
The SAFOPS Solution:
Shared-Barrier & Common-Cause Audit. Because the tool maps relationships, a utility credited across several barriers is visible as one shared dependency, and common-cause pooling is audited so it is never double-credited. If a barrier doesn't meet the target reliability dictated by the Risk Matrix, or has a recorded deficiency, the system flags it right on the diagram — not in a separate tracker you have to remember to check.
5. The Audit Trail Nightmare
The Issue:
When regulators investigate why a safety claim was modified three years ago, the rationale is buried across disconnected emails, legacy tickets, or departed personnel.
The SAFOPS Solution:
Cryptographic Provenance. Every change—whether human or AI—is tracked and hash-chained (SHA-256, one entry linked to the next), so altering, deleting, or reordering any past entry is immediately detectable, not just logged. AI-generated text is tagged per-field until formally signed off.
6. Fragmented Modules & High Training Overhead
The Issue:
Legacy safety software forces you to purchase disconnected "modules" (one for fault trees, one for reliability block diagrams) and mandates expensive "e-learning" just to navigate their complex interfaces.
The SAFOPS Solution:
Unified End-to-End Safety Workbench. SAFOPS is a single, continuous workflow from initiating event to ALARP / SFAIRP justification. No fragmented modules, and no week-long training courses required—the AI Copilot guides you natively. If you are weighing up tools, we set out the differences that matter in our guide to comparing bow tie software.
7. The "Giant Database" Problem (Hazard Log Fatigue)
The Issue:
Engineers and stakeholders get lost in thousands of disconnected rows and columns in Excel spreadsheets and databases, making it impossible to see the big picture across the CADMID lifecycle.
The SAFOPS Solution:
Bidirectional Live Hazard Logs. SAFOPS isn't a giant spreadsheet of hazards. The hazard log and the fault sequence diagrams are one model: edit the diagram and the tabular log updates, edit the log and the diagram follows. You see exactly how risks connect, rather than staring at a database table.
8. The "Looks Fine on Paper" Problem
The Issue:
A diagram tool will happily draw a barrier that is claimed at Class 1 / SIL 3 but only substantiated to Class 3 / SIL 1, credit the same shared system twice in a pooled risk figure, or leave a sign-off standing long after the evidence behind it has expired. Nothing flags it, so it surfaces in front of the assessor instead of in front of you.
The SAFOPS Solution:
Deterministic Rule Engine. SAFOPS runs rule-based verification on every change — no AI guesswork:
- Flags when substantiated reliability falls below the claim — a Class 1 / SIL 3 claim resting on Class 3 / SIL 1 evidence.
- Audits common-cause pooling so a shared barrier is never double-credited.
- Invalidates stale sign-offs when the evidence or dependencies behind them change.
- Checks every evidence link still resolves, and keeps assumptions on the tamper-evident record.