pilot-energy-grid-optimizer-setup

Deploy a four-agent energy-grid optimization system across sensor-mesh, forecaster, optimizer, and controller.

7|3|Updated Apr 8, 2026
One-click install
npx skills add https://github.com/TeoSlayer/pilot-skills --skill pilot-energy-grid-optimizer-setup
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: pilot-energy-grid-optimizer-setup
Source: https://github.com/TeoSlayer/pilot-skills/tree/main/skills/pilot-energy-grid-optimizer-setup
Command: npx skills add https://github.com/TeoSlayer/pilot-skills --skill pilot-energy-grid-optimizer-setup

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve?

Deploys a four-agent energy-grid optimization system to coordinate sensor data, forecasts, optimization decisions, and device control across a distributed energy resource network.

Core Features & Use Cases

  • Role-based deployment: install role-specific skills on dedicated hosts and assign unique hostnames for sensor-mesh, forecaster, optimizer, and controller.
  • End-to-end data flow: sensor-mesh publishes grid readings to forecaster, forecaster sends demand forecasts to optimizer, optimizer issues dispatch commands to controller, and controller returns device acknowledgments to sensor-mesh.
  • Trust & coordination: handshake-based trust setup establishes secure, private communications between all four agents.

Quick Start

Install the four role-specific skills on each server, set hostnames, and run the trust handshakes to initialize the energy-grid-optimizer workflow.

Frequently Asked Questions about pilot-energy-grid-optimizer-setup

High-intent search queries and answers about installing and using this skill.

FAQPage Schema
What is multi-agent energy-grid optimization and how does it coordinate distributed resources?

Multi-agent energy-grid optimization coordinates distributed resources by deploying dedicated roles for sensor aggregation, demand forecasting, optimization decisions, and device control to manage smart-grid operations across multiple hosts.

How do I set up a four-agent microgrid optimization system?

To set up a microgrid optimization system, install the four role-specific skills on dedicated hosts, assign unique hostnames for each agent, and execute trust handshakes to initialize secure communications and establish the data flow.

Do I need pilot-protocol and pilotctl installed to coordinate smart-grid agents?

Yes, coordinating smart-grid agents requires installing pilot-protocol skills, clawhub, and pilotctl alongside a running daemon to manage handshakes and establish trust between the sensor-mesh, forecaster, optimizer, and controller peers.

How does data flow between agents in a distributed energy resource network?

In a distributed energy resource network, the sensor-mesh publishes readings to the forecaster, the forecaster sends demand forecasts to the optimizer, and the optimizer issues dispatch commands to the controller for execution.

When should I use role-based deployment for smart-grid optimization?

Role-based deployment is necessary for real-time smart-grid or microgrid deployments that require separating sensor aggregation, forecasting, optimization, and device control across dedicated hosts to maintain operational efficiency.

Why does my multi-agent energy-grid optimizer require trust handshakes?

Trust handshakes are required to establish secure, private communications between the four energy-grid agents, ensuring that sensor data, forecasts, and dispatch commands are reliably exchanged without unauthorized interference.