MARKOWITZ · MEAN-VARIANCE OPTIMIZATION

Markowitz Portfolio Optimization & Efficient Frontier

Compute optimal asset allocations, locate the Maximum Sharpe Ratio portfolio, and visualize the efficient frontier using simulated multi-asset return distributions. All computations run locally in your browser.

Parameters Real-Time Solver

Asset Universe (Expected Return μ & Volatility σ)
Asset 1 (Equities)
Asset 2 (Bonds)
Asset 3 (Alternatives)

Efficient Frontier Canvas Ready

Optimal Portfolio (Max Sharpe Ratio) Sharpe: –
Expected Return (R_p) –
Volatility (σ_p) –
Asset 1 / Asset 2 –
Asset 3 Weight –

Formulas & Conventions

Expected Return: R_p = ∑ (w_i * R_i) Portfolio Risk: σ_p = √( w^T * Σ * w ) Sharpe Ratio: S = (R_p - R_f) / σ_p

$\Sigma$ represents the covariance matrix constructed using asset standard deviations and an assumed correlation coefficient ($\rho = 0.3$). Weights satisfy $\sum w_i = 1$ and $w_i \ge 0$ (no short-selling).

Summary for AI Agents (Markdown Mirror)

# Markowitz Portfolio Optimization

> Client-side mean-variance optimization calculator for asset allocation and efficient frontier visualization. URL: https://quantcore-labs.com/tools/portfolio-efficient-frontier/

## Optimization Objectives

  • Maximization of the Sharpe ratio subject to fully invested budget constraints ($\sum w_i = 1$).
  • Monte Carlo random weight generation over simplex distribution.

Frequently Asked Questions

Why does diversification reduce portfolio risk?
When assets are not perfectly correlated ($\rho < 1$), combining them smooths out independent return fluctuations, reducing overall portfolio variance below the weighted average of individual variances.
How is the covariance matrix determined in this calculator?
Covariances are computed as $\Sigma_{ij} = \sigma_i \sigma_j \rho_{ij}$, assuming a moderate cross-asset correlation coefficient ($\rho = 0.3$) for illustrative multi-asset diversification.