📦 deps(thirdparty): update snapshots

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# Decision Framework
Comprehensive checklist before committing to complex solutions.
## Requirements Check
Validate that complexity addresses real, current needs.
- [ ] **Can you state the actual requirement in one sentence?**
- If not: Requirements are unclear, gather more context
- If yes: Proceed to verify
- [ ] **Is this requirement validated with users/stakeholders?**
- Source: User research, stakeholder approval, or product spec?
- If assumption: Validate before building
- [ ] **Does the requirement exist today or "might exist someday"?**
- Today: Proceed with validation
- Someday: Apply YAGNI - build when needed
- [ ] **What's the cost of being wrong about this requirement?**
- Low cost: Start simple, iterate
- High cost: Validate thoroughly first
## Alternatives Check
Ensure you've explored simpler options.
- [ ] **Have you listed at least 2 simpler alternatives?**
- Standard library solution
- Proven third-party library
- Simpler architectural pattern
- Direct implementation without abstraction
- [ ] **Have you tried the simplest approach first?**
- If no: Why not? Time pressure isn't sufficient justification
- If yes: What specific limitation did you hit?
- [ ] **Can you articulate why simpler approaches fail?**
- Vague discomfort: Not sufficient
- "Might not scale": Measure first
- Specific technical limitation: Document it
- [ ] **Have you checked if the problem is already solved?**
- Search npm/crates.io/PyPI for existing solutions
- Check framework documentation for built-in features
- Ask: "Is this a solved problem?"
## Constraint Check
Verify constraints are real, not assumed.
- [ ] **What breaks with the simple approach?**
- Be specific: Which requirement? Which scenario?
- If "nothing specific": Choose simple approach
- [ ] **Is the constraint real or assumed?**
- Real: Measured, tested, validated
- Assumed: "Might be slow", "Could be a problem", "Best practice says"
- Test assumptions before building for them
- [ ] **Can the constraint be changed?**
- Technical constraints: Often negotiable
- Business constraints: Sometimes based on outdated assumptions
- Political constraints: Navigate carefully, but challenge when appropriate
- [ ] **Who validated this constraint?**
- You: Verify with others
- Stakeholder: Confirm understanding
- Documentation: Check if still current
- "Everyone knows": Verify, might be outdated
## Cost Check
Evaluate long-term maintenance burden.
- [ ] **What's the maintenance burden of this complexity?**
- How many LOC?
- How many dependencies?
- How many edge cases?
- How often will this need updates?
- [ ] **Do we have expertise to maintain this?**
- Team has experience: Lower risk
- Team learning: Higher risk, needs documentation
- Will depend on one person: Bus factor risk
- [ ] **What's the ramp-up time for new team members?**
- Simple/standard patterns: Days
- Custom/complex patterns: Weeks or months
- Is the complexity worth the onboarding cost?
- [ ] **What's the cost of being wrong?**
- Easy to change: Low risk, can experiment
- Hard to change: High risk, validate thoroughly
- Irreversible: Maximum risk, need strong justification
## Reversibility Check
Prefer decisions that can be changed later.
- [ ] **Can we start simple and add complexity later?**
- Usually: Yes - this is the preferred path
- Sometimes: Architectural decisions harder to reverse
- Rarely: Truly irreversible (database choice, language choice)
- [ ] **What's the cost of changing direction?**
- Low (<1 day): Experiment freely
- Medium (1 week): Validate first, change if needed
- High (>1 week): Requires strong justification
- [ ] **Is this decision reversible?**
- Reversible: Start simple, learn, iterate
- Irreversible: Invest in thorough validation
- Document why if choosing complex approach for reversible decision
- [ ] **What would convince us to reverse this decision?**
- Define success/failure criteria upfront
- Set review timeline
- Avoid sunk cost fallacy
## Scale Check
Don't optimize for scale you don't have.
- [ ] **What's the current scale?**
- Users: 10? 1,000? 1,000,000?
- Requests/sec: 1? 100? 10,000?
- Data size: KB? GB? TB?
- [ ] **What scale does this solution target?**
- Match current scale first
- Optimize when measurements show need
- [ ] **What's the growth timeline?**
- Weeks: Plan for scale now
- Months: Build for 10x current, refactor at 100x
- Years: Build for current, refactor when needed
- Unknown: Build for current scale
- [ ] **Have you measured the performance bottleneck?**
- No measurement: Premature optimization
- Measured: Optimize the actual bottleneck
- Assumed: Test assumption first
## Security Check
Security complexity requires special validation.
- [ ] **What's the threat model?**
- Who are you protecting against?
- What assets are at risk?
- What's the impact of compromise?
- [ ] **Does this security measure address a real threat?**
- Real: Documented, likely, high-impact
- Theoretical: Low priority
- Paranoia: Probably unnecessary
- [ ] **Is this a solved problem in security?**
- Auth, crypto, secrets management: Use proven libraries
- Custom security: Requires security expert review
- [ ] **What's the cost of getting security wrong?**
- User data exposure: Use proven solutions
- Low risk: Can be more experimental
- Regulatory: Consult compliance expert
## Team Check
Complexity affects team velocity and morale.
- [ ] **Does the team understand this solution?**
- Yes: Lower risk
- Partially: Needs documentation
- No: Training required or consider simpler approach
- [ ] **Is this pattern used elsewhere in the codebase?**
- Yes: Consistency is valuable
- No: Inconsistency has a cost, needs justification
- [ ] **Will the team thank you or curse you in 6 months?**
- Thank you: Clear, maintainable, appropriate
- Curse you: Clever, complex, hard to modify
- [ ] **What happens if the expert leaves?**
- Well-documented: Manageable
- Tribal knowledge: Bus factor risk
- Documented externally (framework): Lower risk
## Integration Check
Consider ecosystem and dependencies.
- [ ] **How many dependencies does this add?**
- 0-1: Low risk
- 2-5: Medium, evaluate maintenance
- 6+: High, consider consolidation
- [ ] **Are dependencies actively maintained?**
- Check last commit, issue response time
- Consider: Age, popularity, team size
- Unmaintained: Risk or opportunity to fork
- [ ] **What's the total dependency tree size?**
- Use `npm ls` or equivalent
- Large trees = more security surface, slower installs
- Consider: Tree-shakeable alternatives
- [ ] **Does this lock us into a specific ecosystem?**
- Framework-specific: Consider portability cost
- Standard/portable: Easier to migrate later
- Vendor lock-in: Requires strong business justification
## Documentation Check
Complex solutions need clear documentation.
- [ ] **Can you explain why in 2 sentences?**
- Yes: Good sign
- No: May be too complex or poorly understood
- [ ] **Is there a simpler explanation you're avoiding?**
- "It's just better": Not sufficient
- "Best practice": For what context?
- "More flexible": For what use case?
- [ ] **What will you document?**
- Why this approach (most important)
- How it works
- When to modify/extend
- When to replace
- [ ] **Who will maintain the documentation?**
- Plan for keeping docs current
- Outdated docs worse than no docs
## The Ultimate Question
- [ ] **If you had to maintain this code for the next 5 years, would you still choose this approach?**
If the answer is "no" or "I'm not sure", reconsider.
## Quick Decision Matrix
Use this matrix for fast assessment:
| Complexity | Justification Required |
|-----------|----------------------|
| **Low**: Standard library, proven pattern | None - proceed |
| **Medium**: Well-known framework, common pattern | Brief rationale in code comment |
| **High**: Custom abstraction, novel pattern | ADR with alternatives considered |
| **Very High**: Custom infrastructure, security-critical | ADR + external review + approval |
## When in Doubt
Default answers for common questions:
- **"Should we build or buy?"** → Buy (unless unique requirement validated)
- **"Should we abstract this?"** → Not yet (wait for 3rd use case)
- **"Should we optimize this?"** → Measure first (might not be bottleneck)
- **"Should we use this new technology?"** → Not for production (try in side project first)
- **"Should we make this configurable?"** → No (YAGNI - add when needed)
## Review Triggers
Set calendar reminders to review complex decisions:
- **1 month**: Quick check - still appropriate?
- **3 months**: Did we use the "flexibility" we built for?
- **6 months**: Is this paying off or causing pain?
- **12 months**: Keep, simplify, or replace?
## Red Flags
Stop and reconsider if you hear:
- "We might need it later"
- "It's more flexible"
- "It's best practice"
- "Everyone does it this way"
- "It's enterprise-ready"
- "I read about it on Hacker News"
- "It's the latest trend"
- "It looks good on my resume"
These are rationalization, not requirements.
## Green Flags
Complexity may be justified if:
- Measured performance bottleneck
- Proven scale requirement with timeline
- Regulatory compliance (validated with legal)
- Security threat model (validated with security team)
- Integration contract (external system requirement)
- Team expertise (already fluent, not learning)
Even then, choose the simplest solution that meets the requirement.
## Remember
**The best code is no code.**
**The second best code is boring code.**
**The worst code is clever code.**
Choose boring, simple, proven solutions until you have concrete evidence otherwise.