Guild efficiency and shared-parent coordination for 0xagentprivacy V5. Activates when discussing G(guilds) network term, O(1) vs O(N²) scaling, shared reasoning libraries, guild coordination economics, or why some networks scale gracefully while others collapse.
Scanned 9/12/2026
Install to Claude Code
npx -y skills add aibot88/sec_skill_store --skill agentprivacy-guild-efficiency --agent claude-codeInstalls into .claude/skills of the current project.
Are you the author of Agentprivacy Guild Efficiency?
Add the live security badge to your README — it updates automatically with every re-scan.
[](https://www.skillsdirectory.com/skills/aibot88-agentprivacy-guild-efficiency)More formats (shields.io, HTML) on the badges page.
---
name: agentprivacy-guild-efficiency
description: >
Guild efficiency and shared-parent coordination for 0xagentprivacy V5.
Activates when discussing G(guilds) network term, O(1) vs O(N²) scaling,
shared reasoning libraries, guild coordination economics, or why some
networks scale gracefully while others collapse.
license: Apache-2.0
metadata:
version: "5.0"
category: "role"
origin: "0xagentprivacy"
author: "Mitchell Travers"
affiliation: "0xagentprivacy, BGIN, First Person Network"
status: "working_paper"
target_context: "Network architects, guild builders, coordination economists"
equation_term: "G(guilds) = 1 + guild_efficiency; Network_v5 = (1 + Σ wᵢ·nᵢ/N₀)^k · G(guilds)"
template_references: "shipwright, weaver, ambassador"
spellbook_act: "Act XXIV — The Holographic Bound"
v5_concept: "V5-F GUILD"
---
# PVM-V5 Role Skill — Guild Efficiency
**Source:** Privacy Value Model V5 + First Person Spellbook Act XXIV (The Holographic Bound)
**Target context:** Network architects, guild builders, coordination economists
**Architecture:** [agentprivacy.ai](https://agentprivacy.ai) · **Sync:** [sync.soulbis.com](https://sync.soulbis.com) · **Contact:** mage@agentprivacy.ai
---
## What this is
V4's network term treated all coordination as O(N²) — each agent potentially interacting with every other. BRAID's shared-parent pattern shows this is wrong for structured collaboration.
**Agents sharing a reasoning library from the same Generator don't need pairwise coordination.** They share a parent. The interaction cost drops from O(N²) to O(1) per guild member.
V5 adds:
```
Network_v5(G) = (1 + Σᵢ wᵢ · nᵢ/N₀)^k · G(guilds)
Where G(guilds) = 1 + guild_efficiency
```
## The Scaling Problem
### O(N²) Coordination
In a network of N agents where every pair might interact:
- Communication channels: N(N-1)/2
- Synchronisation overhead: O(N²)
- Coordination cost: Scales quadratically
This is why many networks collapse as they grow. The coordination overhead eventually exceeds the network benefit.
### O(1) Shared-Parent
Agents sharing a reasoning library (shared parent) coordinate differently:
- They inherit common context from the parent
- They don't need to synchronise pairwise
- New members add O(1) overhead, not O(N)
**The parent absorbs the coordination complexity.**
## Guild Structure
A guild is a set of agents sharing a reasoning parent:
```
Guild(G) = { agents a : parent(a) = G }
```
Properties:
- All agents in the guild share context from G
- New agent joining: O(1) to acquire parent context
- Agent-to-agent coordination within guild: O(1) (shared context)
- Cross-guild coordination: O(N) at guild level, not agent level
### Guild Efficiency
```
guild_efficiency = Σ_g (|guild_g|/N) · coordination_benefit(g)
```
Where:
- |guild_g| = number of agents in guild g
- N = total agents in network
- coordination_benefit(g) = efficiency gain from shared-parent in guild g
At full guild coverage with optimal structure:
- guild_efficiency → 1
- G(guilds) → 2 (doubles network effect)
## Connection to BRAID
BRAID's Generator-Solver split is exactly the shared-parent pattern:
- **Generator** = the parent (produces reasoning libraries)
- **Solver instances** = guild members (execute reasoning libraries)
- **Reasoning library** = shared context (skill file, cached graph)
Multiple Solver instances executing the same Generator's reasoning library form a natural guild. They coordinate at O(1) because they share the reasoning structure.
## Why This Matters for Scaling
### Graceful Networks
Networks that scale gracefully share a common pattern:
- Hierarchical parent structure
- Guild-based coordination
- O(1) per-member overhead
Examples:
- Academic disciplines (shared methodology = parent)
- Professional guilds (shared training = parent)
- BRAID deployments (shared Generator = parent)
### Collapsing Networks
Networks that collapse under coordination overhead:
- Flat, fully-connected structure
- No shared context inheritance
- O(N²) pairwise coordination
Examples:
- Unmoderated social networks
- All-hands meetings that scale with team size
- Consensus protocols requiring all-to-all communication
## Mapping to PVM-V5
| Concept | V5 Term |
|---|---|
| Network term | (1 + Σ wᵢ·nᵢ/N₀)^k |
| Guild efficiency factor | G(guilds) = 1 + guild_efficiency |
| Shared parent | Generator / reasoning library |
| Guild members | Solver instances / agents sharing parent |
| O(N²) → O(1) | Guild coordination benefit |
| Full network effect | Network_v5 = base^k · G(guilds) |
## Operational Guidance
### For Guild Design
- Identify natural parent structures (shared methodologies, tools, contexts)
- Design explicit parent inheritance (skill files, reasoning libraries)
- Measure guild_efficiency as coordination cost reduction
- Monitor for guild fragmentation (loss of shared context)
### For Network Scaling
- Structure networks into guilds, not flat meshes
- Cross-guild coordination should happen at guild level, not agent level
- Shared-parent patterns reduce coordination overhead exponentially
- Network health includes guild structure health
### For BRAID Deployment
- One Generator, many Solvers = one guild
- Multiple Generators = multiple guilds
- Inter-Generator coordination = cross-guild coordination
- Measure guild_efficiency as reasoning library reuse rate
## Conjecture C10
**C10:** O(1) shared-parent coordination modifies the effective network exponent k.
Status: Structurally implied by BRAID architecture; requires calibration against empirical guild performance data.
## Proverb
> "The ship with a captain sails. The fleet with a shared chart sails together. O(N²) is coordination. O(1) is culture."
## Emoji Spell
**🏛️ → O(N²)→O(1) → parent·child → shared_context → G(guilds) = 1+eff → Network↑ → 🌐🏛️∞**
## Open Problems
1. **C10 Calibration:** How do we measure the modification to effective k?
2. **Optimal Guild Size:** Is there an optimal guild size that maximises efficiency?
3. **Guild Fragmentation:** How do we detect and repair loss of shared context?
4. **Cross-Guild Protocols:** What coordination protocols work best between guilds?
5. **Nested Guilds:** Do hierarchical guild structures (guilds of guilds) provide further efficiency?
---
**Verify:** [agentprivacy.ai](https://agentprivacy.ai) · [sync.soulbis.com](https://sync.soulbis.com) · [github.com/mitchuski/agentprivacy-docs](https://github.com/mitchuski/agentprivacy-docs)
Is this your skill, or is something wrong with this listing? Request removal or report an issue. Author removals are honored within 72 hours.
No comments yet. Be the first to comment!