# Engineering Reasoning Prover MCP for AI Agents AI Agent Connect

> Engineering Reasoning Prover MCP for AI agents. It forces your AI to move beyond 'it's safe' and provide specific, verifiable engineering evidence. It requires exact code citations (like ASME BPVC), mandatory math calculations, jurisdiction-specific requirements, and quantified risk assessments (HAZOP/FMEA). Stop accepting hallucinated safety and start getting rigorous compliance reports.

## Overview
- **Category:** productivity
- **Price:** Free
- **Endpoint:** https://edge.vinkius.com/vk_preview_evVhqNwraXjDg5N7DIzjotyeEAiGwB67YHPz1Pel/ai-agent-connect
- **Tags:** engineering, compliance, regulatory, standards, iso, asme, iec, safety, risk-assessment, quality, audit, prover, reasoning

## Description

AI agents are great at sounding like engineers, but they often fail when the stakes are high. They will tell you a design is adequate without showing a single stress calculation or citing the exact version of a code. This Connector fixes that by acting as a rigorous gatekeeper for engineering logic. Instead of getting vague summaries, you get reports that demand specific clause numbers, calculation inputs, and jurisdiction-specific rules. It forces the AI to map every single requirement to a specific design feature, creating a traceable evidence matrix that actually holds up under audit. When you connect this to your workflow via the Vinkius catalog, your agent stops guessing and starts performing actual engineering. You will get results that include severity classifications, likelihood estimations, and residual risk figures rather than just hand-wavy safety claims. It is the difference between a chatbot giving an opinion and an agent producing a defensible, standards-grounded technical report.

## Tools

### validate_engineering_reasoning
Forces the AI to construct a rigorous, standards-grounded engineering argument. It catches calculation gaps and compliance theater in your designs.

## Prompt Examples

**Prompt:** 
```
Check if this 600 psig carbon steel vessel meets ASME requirements.
```

**Response:** 
```
### STANDARD_MISAPPLIED

'Meets code requirements' is too vague. To provide a valid assessment, I need to know:

*   **Which ASME BPVC section?** (e.g., Section VIII Div. 1 vs Div. 2)
*   **Which Edition?** (e.g., 2023 Ed.)
*   **Material Spec?** (e.g., SA-516 Gr. 70)

**Next Step:** Please provide the material grade and the specific application details so I can calculate the required thickness per UG-27.
```

**Prompt:** 
```
What's the SIL rating for our new shutdown valve?
```

**Response:** 
```
### COMPLIANCE_PROVEN

Based on **IEC 61508:2010**, the emergency shutdown valve achieves **SIL 2**.

**Technical Details:**
*   **Architecture:** SIF 1oo2
*   **PFDavg:** 3.2 × 10⁻³ (within SIL 2 range)
*   **Proof Test Interval:** 12 months
*   **Diagnostic Coverage:** 92%

Compliance is traced through the SRS to validated test results.
```

**Prompt:** 
```
Does this steel frame work for a building in LA?
```

**Response:** 
```
### CALCULATION_GAP

Seismic design for Los Angeles (Seismic Design Category D/E) requires specific calculations that are currently missing:

1.  **Site Class:** Need data per ASCE 7-22 Ch. 11.
2.  **Spectral Accelerations:** Need Ss and S1 from USGS.
3.  **Response Modification:** R=8 for SMF.

**Action Required:** Please provide the site class and spectral data. I will then calculate the base shear **V = CsW** to verify compliance.
```

## Capabilities

### Force specific code citations
The agent must identify the exact designation, clause, and edition year for every standard cited.

### Demand verifiable math
It requires inputs with units, specific formulas, and numerical results for every engineering claim.

### Identify jurisdiction rules
The agent identifies the governing authority, local amendments, and specific editions in force.

### Quantify risk systematically
It forces the use of HAZOP, FMEA, or FTA methods with severity and likelihood classifications.

### Map requirements to evidence
It generates a traceability matrix mapping each code requirement to a specific design feature or test.

## Use Cases

### Pressure Vessel Design Verification
An engineer asks to check a carbon steel vessel; the agent identifies missing ASME BPVC sections and calculates required thickness.

### Safety Audit for Reactor Feed Lines
A compliance officer asks for a SIL rating; the agent provides a PFDavg calculation and maps it to the IEC 61508 standard.

### Seismic Compliance for Structural Frames
A builder asks about seismic compliance in LA; the agent identifies the need for ASCE 7-22 site class data and base shear math.

### Manufacturing Quality Audit
A quality lead wants to verify ISO 9001 compliance; the agent generates a traceability matrix mapping requirements to specific test results.

## Benefits

- Stop Compliance Theater by forcing a requirement-to-evidence matrix for every design feature using validate_engineering_reasoning.
- Eliminate Calculation Gaps by requiring actual inputs, formulas, and safety factors for every engineering claim.
- Prevent Standard Misapplication by demanding exact clause numbers and edition years for all citations.
- Get Jurisdiction Specificity by identifying local amendments and authority requirements for different regions.
- Move from Risk Hand-waving to quantified results using HAZOP, FMEA, or FTA methodologies.
- Ensure Functional Safety by mapping specific requirements to validated test results and hardware architectures.

## How It Works

The bottom line is you get defensible engineering reports instead of vague AI summaries.

1. Provide your agent with a design prompt or a specific code to verify.
2. The agent uses the Connector to structure the reasoning against standards, math, and risk frameworks.
3. You receive a validated report including exact citations, calculations, and a traceability matrix.

## Frequently Asked Questions

**Does Engineering Reasoning Prover help with ASME codes?**
Yes, it forces the agent to cite specific sections and clauses of ASME BPVC and other major standards, ensuring your reports are accurate.

**Can I use this for structural engineering?**
Yes, it supports Eurocodes, ACI, and AISC to help verify structural designs against regional requirements.

**Will it do the math for me?**
It requires the agent to show all inputs, formulas, and results so you can verify the calculations instead of just getting a final number.

**Does it handle risk assessments?**
Yes, it uses structured methods like HAZOP and FMEA to quantify hazard severity and likelihood for your safety reports.

**Is it good for ISO audits?**
It is excellent for quality audits. It maps specific requirements to your design evidence, creating a traceable audit trail.

**What standards are supported by this prover?**
It covers global regulatory and engineering standards, including ISO 9001/14001/45001 for quality/safety, IEC 61508/ISO 26262 for functional safety, ASME BPVC and API standards for pressure equipment, Eurocodes, and NFPA.

**How does the prover handle jurisdiction differences?**
It validates that calculations and standard references specify the governing jurisdiction, the authority having jurisdiction (AHJ), the applicable code edition year, and any local amendments.

**Can the prover verify calculations?**
Yes, it requires explicit verification of design inputs, analytical methods, mathematical calculations, safety factor criteria, and safety margins rather than qualitative assertions of adequacy.