... | @@ -132,6 +132,8 @@ We can see from the above plots that the difference of norms of $`\Sigma(k)\Sigm |
... | @@ -132,6 +132,8 @@ We can see from the above plots that the difference of norms of $`\Sigma(k)\Sigm |
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the spread of the difference of norms. The spread is basically the standard deviation of this quantity.
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the spread of the difference of norms. The spread is basically the standard deviation of this quantity.
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<img src="uploads/e40fad036f1eb14b88dc87c04afbef4a/envelop_gw190412_1_.png" width="440" >
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<img src="uploads/e40fad036f1eb14b88dc87c04afbef4a/envelop_gw190412_1_.png" width="440" >
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<img src="uploads/dd1bd047ce590f34750ae7e8f1803acc/envelop_gw190814.png" width="440" >
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The quantity $`\mu(k)`$ is the mean of the difference of norms and $`\sigma(k)`$ is the standard deviation.
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The quantity $`\mu(k)`$ is the mean of the difference of norms and $`\sigma(k)`$ is the standard deviation.
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The 10 largest likelihood samples are chosen to compute the spread. We can find the k_max for which the distance between these two curves along the y-axis is greater than a threshold, approximately O(1e-7).
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The 10 largest likelihood samples are chosen to compute the spread. We can find the k_max for which the distance between these two curves along the y-axis is greater than a threshold, approximately O(1e-7).
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