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Expert Electron application architecture skill for IPC design, main/renderer/preload boundaries, security hardening, performance optimization, packaging strategy, native integration, and cross-platform desktop development. Use when reviewing or designing Electron apps, planning migrations, auditing architecture risks, choosing IPC patterns, diagnosing startup or memory issues, or coordinating related Electron skills.
Generates DrawIO XML diagrams for Amazon Web Services architectures from text descriptions or images. Analyzes existing .drawio files to extract AWS components. Use for AWS architecture diagrams, cloud infrastructure documentation, or when converting AWS diagram images to editable DrawIO format.
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基于 SOC 职业分类
正在显示 SKILL.md
| name | requirements-flowdown |
| description | Skill for systematic requirements capture, decomposition, and traceability |
| allowed-tools | ["Read","Write","Glob","Grep","Bash"] |
| metadata | {"specialization":"mechanical-engineering","domain":"science","category":"design-development","priority":"medium","phase":7,"tools-libraries":["IBM DOORS","Jama Connect","Polarion"]} |
The Requirements Flow-Down skill provides systematic capabilities for capturing, decomposing, and tracing requirements throughout the mechanical design process, ensuring design intent is properly communicated and verified.
Level 1: Stakeholder Requirements
- What the customer/user needs
- High-level, solution-independent
- Source: Customer specifications, standards
Level 2: System Requirements
- What the system must do
- Allocated from stakeholder requirements
- Source: System engineering
Level 3: Subsystem Requirements
- What each subsystem must do
- Allocated from system requirements
- Source: Architecture trade studies
Level 4: Component Requirements
- What each component must do
- Allocated from subsystem requirements
- Source: Detailed design
| Type | Description | Example |
|---|---|---|
| Functional | What the system does | "Shall lift 500 kg" |
| Performance | How well it performs | "Lifting time < 30 sec" |
| Interface | Connections to other systems | "Shall mate with Type A connector" |
| Environmental | Operating conditions | "Shall operate at -40 to +85 C" |
| Physical | Size, weight, shape | "Shall weigh < 25 kg" |
| Reliability | Failure characteristics | "MTBF > 10,000 hours" |
| Maintainability | Service characteristics | "Shall be serviceable in field" |
| Safety | Hazard prevention | "Shall prevent pinch points" |
Each requirement should have:
- Unique identifier (REQ-XXX-XXXX)
- Requirement text (shall statement)
- Rationale (why needed)
- Source (parent requirement or stakeholder)
- Priority (must have, should have, nice to have)
- Verification method (analysis, test, inspection, demo)
- Owner (responsible engineer)
- Status (draft, approved, verified)
Good requirement characteristics (SMART):
- Specific: Unambiguous and clear
- Measurable: Quantifiable acceptance criteria
- Achievable: Technically feasible
- Relevant: Traces to stakeholder need
- Traceable: Links up and down hierarchy
Bad: "The system shall be easy to use"
Good: "The system shall be operable by one person
without tools within 5 minutes of training"
Parse Parent Requirement
Allocate to Children
Derive Supporting Requirements
Parent: "System shall weigh < 100 kg"
Children:
- Structure: < 40 kg (40%)
- Mechanism: < 25 kg (25%)
- Electronics: < 15 kg (15%)
- Cabling: < 10 kg (10%)
- Margin: 10 kg (10%)
Requirements Verification Matrix (RVM):
| Req ID | Requirement Text | Source | Verification Method | Evidence |
|--------|------------------|--------|---------------------|----------|
| REQ-001 | Shall lift 500 kg | SRS-001 | Test | Test Report TR-001 |
| REQ-002 | Shall operate at -40C | SRS-002 | Test | Test Report TR-002 |
| REQ-003 | Shall weigh < 25 kg | SRS-003 | Inspection | FAI-001 |
| Method | Application | Evidence |
|---|---|---|
| Analysis | Calculations, simulations | Analysis report |
| Test | Physical testing | Test report |
| Inspection | Visual/dimensional check | Inspection report |
| Demonstration | Functional demo | Demo record |
Mechanical standards flow-down:
1. Identify applicable standards (contract, regulatory)
2. Extract applicable requirements from standards
3. Create derived requirements with standard reference
4. Track compliance through verification
| Domain | Standards |
|---|---|
| Structural | ASME BPVC, AWS D1.1, AISC |
| Materials | ASTM, SAE AMS, MMPDS |
| Drawing | ASME Y14.5, ASME Y14.100 |
| Quality | ISO 9001, AS9100 |
| Safety | OSHA, ANSI, ISO 13849 |
| Environmental | MIL-STD-810, IEC 60068 |
1. Change request submitted
2. Impact assessment
- Technical impact
- Cost impact
- Schedule impact
- Downstream requirements
3. Review and approval
4. Implementation
5. Verification of change
6. Update traceability
{
"source_documents": {
"customer_spec": "string",
"applicable_standards": "array",
"interface_documents": "array"
},
"system_context": {
"system_name": "string",
"subsystems": "array",
"interfaces": "array"
},
"requirement_level": "stakeholder|system|subsystem|component"
}
{
"requirements_set": [
{
"id": "string",
"text": "string",
"type": "functional|performance|interface|environmental|physical",
"source": "string",
"parent": "string",
"verification_method": "analysis|test|inspection|demonstration",
"owner": "string",
"priority": "must|should|nice",
"status": "draft|approved|verified"
}
],
"traceability_matrix": {
"upward": "matrix of parent links",
"downward": "matrix of child links",
"verification"