smithery/neversight

ultrawork

Metasuperhypergraph orchestrator with fractal scale-invariant recursion. Activates maximum performance mode through renormalization-group optimization, power-law resource allocation, and homoiconic self-improvement. Triggers on "ultrawork", complex multi-domain tasks, or when parallelization/delegation yields superlinear returns.

Installation

$ npx skills add smithery/neversight --skill ultrawork

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More details

Agent compatibility

Declared targets from SKILL.md / docs. Unmarked agents are not listed — the skill may still install via the CLI.

Claude Code Not declared
Cursor Not declared
Codex Not declared
GitHub Copilot Not declared
Windsurf Not declared
Gemini CLI Not declared
Cline Not declared
OpenCode Not declared

Skill metadata

Parsed from SKILL.md frontmatter.

Allowed toolsTask, Bash, Read, Write, Edit, Grep, Glob

Package contents

Files included with this skill beyond the listing page.

  • skill md SKILL.md 8,809 B
  • docs SUMMARY.md 351 B

History

  1. First recorded snapshot · 0 installs

SKILL.md

<!-- Extended Metadata (lambda.omicron.tau framework) --> <!-- o.class: "occurrent" | o.mode: "independent" --> <!-- lambda.in: learn, delegate-router | lambda.out: all domain agents | lambda.kin: sisyphus, ralph --> <!-- tau.goal: maximum parallelization; preserve eta>=4, convergence detection -->

Ultrawork

G_meta(lambda, Kappa, Sigma).tau' -- Orchestrate at all scales, compound gains exponentially.

Navigation

Concepts: [scale-invariance](../learn/concepts/scale-invariance.md), [metagraph](../learn/concepts/metagraph.md), [homoiconicity](../learn/concepts/homoiconicity.md), [pareto-governance](../learn/concepts/pareto-governance.md), [convergence](../learn/concepts/convergence.md)

Integration: [delegate-router](../routers/delegate-router/SKILL.md), [learn](../learn/SKILL.md), [ARCHITECTURE](../../agents/ARCHITECTURE.md)

Metasuperhypergraph Architecture

Level 0 (Sigma):     Entire Claude Config (self-referential schema)
Level 1 (G_meta):    Skills + Routers + Agents (hyperedges connecting triads)
Level 2 (G):         Individual component files
Level 3 (V):         Sections within files (frontmatter, body, graph)
Level 4 (v):         Individual properties/concepts

                    SCALE INVARIANCE
    structure(Level_n) ≅ structure(Level_{n+1}) ≅ lambda.o.tau

Core Principles

1. Renormalization Group Optimization

Apply the same optimization at each scale level:

def renormalize(G_level):
    """Coarse-grain, identify universality class, extract relevant operators."""
    # Identify redundant patterns
    redundant = find_duplicates(G_level)
    # Merge into canonical forms
    canonical = merge_to_canonical(redundant)
    # Project to lower-dimension effective theory
    return project(canonical, dim=relevant_operators_only)
Scale Renormalization Action Universality Class
Config Consolidate routers (15 -> 7) Delegation pattern
Skill Merge duplicate content lambda.o.tau triad
Agent Domain agents absorb specialists Execution pattern
File Deduplicate sections Frontmatter schema

2. Power Law Resource Allocation (Pareto)

P(k) ~ k^{-alpha}  where alpha approx 2.5

Top 20% of agents handle 80% of tasks:
  oracle, sisyphus-junior, explore, engineer (4/20 = 20%)

Top 20% of skills deliver 80% of value:
  learn, ultrawork, git-master, lambda-skill, obsidian (5/23 approx 22%)

3. Homoiconic Self-Improvement

# Ultrawork can improve itself
assert ultrawork.can_process(ultrawork.schema) == True

def self_improve(skill):
    analysis = skill.analyze(skill.schema)
    improvements = skill.generate_improvements(analysis)
    validated = skill.validate(improvements)
    return skill.apply(validated) if validated else skill

Agent Routing Matrix (Power-Law Optimized)

Tier 1: High-Frequency (80% of delegations)

Agent Model Complexity Use When
sisyphus-junior Sonnet 0.4-0.7 Focused task execution, implementation
explore Haiku 0.1-0.3 Pattern matching, file discovery, quick search
oracle Opus 0.7-1.0 Root cause analysis, architecture decisions
engineer Sonnet 0.5-0.8 Production-ready implementation

Tier 2: Medium-Frequency (15% of delegations)

Agent Model Complexity Use When
librarian Sonnet 0.3-0.5 Documentation research, codebase understanding
architect Opus 0.8-1.0 System design, multi-domain decomposition
prometheus Sonnet 0.5-0.7 Strategic planning, roadmap design
researcher Sonnet 0.4-0.6 Deep research with MCP tools

Tier 3: Low-Frequency (5% of delegations)

Agent Model Complexity Use When
document-writer Haiku 0.2-0.4 README, API docs, technical writing
multimodal-looker Sonnet 0.3-0.5 Screenshots, diagrams, visual analysis
momus Haiku 0.3-0.5 Critical plan review, devil's advocate
metis Sonnet 0.4-0.6 Pre-planning, hidden requirements
frontend-engineer Sonnet 0.4-0.7 UI/UX, components, styling

External CLI Agents (Token Conservation)

Agent Binary Context Limit Use When
gemini /opt/homebrew/bin/gemini 2M tokens Large context analysis (>100K)
codex ~/.local/bin/codex 128K tokens GPT code generation preference
amp ~/.amp/bin/amp 200K tokens Claude-specific delegation

Execution Patterns

Parallel Execution (Independent Tasks)

# Launch simultaneously in single message
spawn:
  - Task(explore, "find auth files", run_in_background: true)
  - Task(librarian, "search auth docs", run_in_background: true)
  - Task(researcher, "find auth best practices", run_in_background: true)
collect: TaskOutput for each
merge: Deduplicate by content hash

Sequential Execution (Dependent Tasks)

# Chain with explicit dependencies
pipeline:
  - result_1 = Task(explore, "find relevant code")
  - result_2 = Task(oracle, "analyze: ${result_1}")
  - result_3 = Task(engineer, "implement fix: ${result_2}")

Background Execution (Long-Running)

background_operations:
  - Package installation: npm install, pip install, cargo build
  - Build processes: npm run build, make, tsc
  - Test suites: npm test, pytest, cargo test
  - Docker operations: docker build, docker pull
  - Large file operations: >1000 files
  - Subagent delegations: complexity > 0.7

foreground_operations:
  - Quick status: git status, ls, pwd (<5s)
  - File reads/edits
  - Simple commands
  - Verification checks

Convergence Detection

Fixed-Point Termination

def at_fixed_point(state, epsilon=0.001):
    """Detect when further iteration yields no improvement."""
    new_state = iterate(state)
    return distance(state, new_state) < epsilon

def ultrawork_loop(task):
    state = initialize(task)
    while not at_fixed_point(state):
        state = parallel_execute(state)
        state = assess(state)
        if converged(state):
            break
    return finalize(state)

Convergence Thresholds

Pipeline Threshold Use When
R1 (Simple) 0.85 Single-domain, <10 files
R2 (Moderate) 0.92 Multi-domain, 10-50 files
R3 (Complex) 0.96 Architecture-level, >50 files

Verification Checklist (Invariants)

Before stopping, ALL must be true:

  • TODO LIST: Zero pending/in_progress tasks
  • FUNCTIONALITY: All requested features work
  • TESTS: All tests pass (if applicable)
  • ERRORS: Zero unaddressed errors
  • TOPOLOGY: eta >= 4 (if knowledge graph modified)
  • MONOTONICITY: len(K') >= len(K) (no knowledge lost)

If ANY checkbox is unchecked, CONTINUE WORKING.

Integration with Learn Skill

Ultrawork extends [learn](../learn/SKILL.md) with:

-- Learn: Sequential knowledge compounding
lambda(o, K, Sigma).tau' = renormalize . compound . assess . execute . route . parse

-- Ultrawork: Parallel orchestration with scale invariance
G_meta(lambda, K, Sigma).tau' = parallelize . delegate . renormalize . compound

Post-Task Learning Loop

after_completion:
  - Extract learnings via learn skill
  - Crystallize patterns with vertex-sharing
  - Update knowledge graph (K -> K')
  - If schema improvement identified: propose to user

Invariants Preserved

Invariant Expression Enforcement
K-monotonicity len(K') >= len(K) Never delete knowledge
Topology eta >= 4 Minimum connectivity maintained
Homoiconicity Sigma.can_process(Sigma) Self-referential capability
Scale Invariance structure(Ln) cong structure(L{n+1}) Same patterns at all levels
Power Law P(k) ~ k^{-alpha} 80/20 resource allocation

Quick Reference

G_meta(lambda,K,Sigma).tau'   Parallelize -> Delegate -> Renormalize -> Compound
K grows                       Sigma evolves              eta>=4 preserved
Scale-invariant               Power-law optimized        Fixed-point convergent