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ir7
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Gamma and Vega are not independent. In Black-Scholes world, aka flat implied volatility, we have:

$$V_y= \sigma_y \tau_y S^2 \Gamma_y $$

and similarly for $z$.

Gamma and Vega are not independent. In Black-Scholes world, aka flat implied volatility, we have:

$$V_y= \sigma_y \tau_y S^2 \Gamma_y $$

and similarly for $z$.

In Black-Scholes world, we have:

$$V_y= \sigma_y \tau_y S^2 \Gamma_y $$

and similarly for $z$.

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ir7
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Gamma and Vega are not independent. In Black-Scholes world, aka flat implied volatility, we have:

$$Vega = \sigma \tau S^2 Gamma.$$$$V_y= \sigma_y \tau_y S^2 \Gamma_y $$

and similarly for $z$.

Gamma and Vega are not independent. In Black-Scholes world, aka flat implied volatility, we have:

$$Vega = \sigma \tau S^2 Gamma.$$

Gamma and Vega are not independent. In Black-Scholes world, aka flat implied volatility, we have:

$$V_y= \sigma_y \tau_y S^2 \Gamma_y $$

and similarly for $z$.

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nbbo2
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Gamma and Vega are not independent. In Black-Scholes world, aka flat implied volatility, we have:

$$Vega = \sigma \tau S^2 Gamma.$$

In Black-Scholes world, aka flat implied volatility, we have:

$$Vega = \sigma \tau S^2 Gamma.$$

Gamma and Vega are not independent. In Black-Scholes world, aka flat implied volatility, we have:

$$Vega = \sigma \tau S^2 Gamma.$$

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ir7
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