π§ AndreOS v0.7: Building My Multi-Agent Stack
Over the last phase, I designed, deployed, and iterated on a structured multi-agent system with OpenClaw. The goal was simple: stop treating LLM agents like chat toys and start using them as durable, role-based operators across three domains:
- Personal operations
- Business operations (Eva Home Cleaning)
- Automation and technical infrastructure
This post is the consolidated breakdown of what I built, what failed, what got hardened, and what this sets up next.
1) Infrastructure & Multi-Agent Architecture
I moved from ad-hoc experimentation to a clean multi-agent architecture on a single OpenClaw gateway.
What changed
- Pivoted from a messy multi-profile setup to one structured multi-agent runtime.
- Defined explicit agent identities and responsibilities:
- Joe β personal ops + automation architect
- Eva β business front desk + lead qualification behavior
- MacJoe β systems tasks, browser automation, glue logic
- Tightened session-to-memory workflows to reduce context loss.
- Investigated semantic retrieval and indexing behavior in the memory layer.
- Improved persistence hygiene (important decisions now written to durable files).
- Resolved long-run timeout fragility in automation jobs.
Outcome: agents became stateful operators, not just chat interfaces.
2) Automation Engine (Things That Run Without Babysitting)
I built a practical automation layer around repeatable jobs and proactive checks.
π« Flight Monitoring Bot
- Cron-based SFO β GRU monitoring.
- Global timeout controls and per-task error handling.
- Progress logging and survivability for long runs.
π° X/Twitter Timeline Digest
- Pipeline: pull β summarize β digest.
- Learned rate-limit and retry behavior in real usage.
- Structured output focused on signal over noise.
β° Scheduled Operations
- Cron jobs + heartbeat-style checks.
- Reminder and proactive monitoring logic.
- Shifted behavior from reactive to predictable.
π§ Recruiter Outreach Tracker
- Gmail β Google Sheets automation.
- Node + CLI-based integration.
- Detect outreach, filter noise, extract company/role, save structured rows.
Outcome: a lightweight personal automation framework with LLMs as intelligent middleware.
3) Personal Operations Layer
I turned agents into everyday systems, not occasional helpers.
π₯ Nutrition Tracking System
- Photo β conservative macro estimate.
- Correction-based calibration loop.
- Append-only logging for durability.
βοΈ Weight Tracking System
- Scale-photo ingestion.
- Append-only logs for trend tracking.
π Daily Execution System
- DAILY.md-based task flow.
- Checklist discipline and execution focus.
βοΈ Chess Analysis System
- Chess.com + Stockfish integration.
- CPL metrics + blunder/mistake/inaccuracy reporting.
Outcome: the beginning of a quantified-self layer powered by role-based agents.
4) Voice & Messaging UX Experiments
I didnβt just build backend automations. I tested controllability and UX behavior in production-like usage.
- WhatsApp voice-reply path with explicit triggers.
- Behavior controls (βvoice only when requestedβ).
- Delivery troubleshooting and operational guardrails.
- Anti-manipulation constraints and clearer behavior contracts.
Outcome: moved from free-form assistant behavior to intentional, rule-bound behavior.
5) Eva Home Cleaning β AI as Front Desk
This is where the work became operationally serious.
π Foundation & Brand
- Defined assistant voice: warm, concise, confident, conversion-focused.
- Set behavior guardrails and operating rules.
π Website & Infra
- Live site and deployment workflow via GitHub + Vercel.
- Business email and telephony routing integrated.
π Voice Intake Redesign
- Redesigned after real-world testing.
- Handled six caller patterns (new lead, job seeker, existing client, vendor/spam, wrong number, suspicious/off-topic).
- Minimal intake fields: name, callback, city, brief need.
π Marketing & Ads Iteration
- Identified campaign misalignment and adjusted channel strategy.
- Focused on search intent and lead quality visibility.
- Tracked budget guardrails and analytics instrumentation discussions.
π Local Presence
- Set up local business presence and profiles.
- Resolved browser/auth friction during setup flow.
- Managed address/hours visibility decisions before final publishing.
Outcome: an AI-assisted front desk integrated with web, ads, telephony, and local channels.
6) Reliability & Hardening
This phase was less about demos and more about engineering discipline.
- Investigated gateway runtime architecture and behavior.
- Diagnosed schema/config blockers in voice pathways.
- Created proof-of-concept branches for processing flow improvements.
- Hardened timeout handling and long-run durability patterns.
The mental model shifted toward:
- Failure modes
- Recovery strategies
- Persistence guarantees
- Schema alignment
What Was Actually Built (Zoomed Out)
In practice, this became a multi-layer personal operating stack:
- Personal automation layer
- Business operations layer
- Quantified-self layer
- Lead intake layer
- Recruiter tracking layer
- Messaging/voice experimentation layer
In short: AndreOS v0.7, powered by OpenClaw.
Not just chatbots. Not just scripts. A structured, role-based AI operations system.
Lessons Extracted
- Context evaporates unless you persist it.
- Long-running jobs require explicit timeout discipline.
- Multi-agent architecture beats profile chaos.
- Business assistants need clear guardrails and minimal intake logic.
- Conversion-focused behavior beats βcleverβ conversation.
- Durable skills prevent workflow drift.
- Reliability thinking changes how prompts and systems are designed.
What This Enables Next
This phase strengthened systems design instincts, operational thinking, and runtime/state discipline. More importantly, it produced a repeatable blueprint for future AI-assisted products and businesses.
v1.0 will be about reducing friction, improving observability, and increasing autonomy without sacrificing control.