asset-allocation

Optimize multi-asset portfolio weights using built-in optimizers and config.json.

Updated Apr 19, 2026
One-click install
npx skills add https://github.com/ajithkumar31082004-bit/Vibe-Trading --skill asset-allocation-ajithkumar31082004-bit
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: asset-allocation
Source: https://github.com/ajithkumar31082004-bit/Vibe-Trading/tree/main/Vibe-Trading-main/agent/src/skills/asset-allocation
Command: npx skills add https://github.com/ajithkumar31082004-bit/Vibe-Trading --skill asset-allocation-ajithkumar31082004-bit

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve?

Asset allocation theory is essential for building diversified portfolios and guiding decisions around risk budgeting, policy benchmarks, and rebalancing rules. This skill outlines frameworks like Modern Portfolio Theory, Black-Litterman, and all-weather strategies, and explains how to implement the four built-in optimizers in this system to produce actionable weights.

Core Features & Use Cases

  • Modern Portfolio Theory (MPT), Black-Litterman, risk budgeting, and all-weather framework coverage.
  • Built-in optimizers: equal_volatility, risk_parity, mean_variance, max_diversification, and guidance for rebalancing rules and scenarios.
  • Output generation into config.json for seamless integration with portfolio systems; suitable for multi-asset investments and backtesting.

Quick Start

Provide a default asset allocation plan using the built-in optimizers and generate a config.json.

Frequently Asked Questions about asset-allocation

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

FAQPage Schema
How do I optimize portfolio allocation using Modern Portfolio Theory and Black-Litterman?

Portfolio allocation is optimized by applying MPT, Black-Litterman, risk budgeting, and all-weather strategies to a multi-asset universe. The system requires return forecasts, covariance data, and a valid optimizer configuration to calculate actionable target weights.

What's the best way to generate target weights for multi-asset portfolio construction?

The best way to generate target weights is using built-in optimizers like mean_variance, risk_parity, equal_volatility, and max_diversification. You provide an instrument universe, return forecasts, and covariance data to produce the final allocation.

Can I use risk parity and max diversification frameworks with custom rebalancing rules?

Yes, risk parity and max diversification frameworks support custom rebalancing rules and constraints. Applied to multi-asset investments, they process covariance data and return forecasts to output target weights suitable for backtesting scenarios.

How does portfolio optimization output integrate with existing portfolio management systems?

Portfolio optimization integrates by generating output directly into a config.json file. This format allows seamless integration with downstream portfolio systems, enabling automated execution of the calculated target weights and rebalancing rules.

What data do I need to perform risk budgeting and portfolio reconstruction?

Risk budgeting and portfolio reconstruction require an instrument universe, return forecasts, covariance data, and a valid optimizer configuration. These inputs allow the framework to process constraints and produce actionable target weights.

When should I use the Black-Litterman model versus standard mean variance optimization?

Use the Black-Litterman model versus standard mean variance optimization when you need to incorporate subjective return forecasts into market equilibrium returns. Both frameworks process covariance data and constraints to output target weights via config.json.