Concatenation Affinity

Concatenation Affinity is a concept in mathematical analysis that refers to the similarity between two points. It is a self-similarity function that uses a concatenation function to establish a relationship between two points, $\mathbb{x_i}$ and $\mathbb{x_j}$. The function is as follows: The Concatenation Function The formula for Concatenation Affinity uses a concatenation function denoted by $\left[·, ·\right]$. The function is used to concatenate two vectors or points, $\theta\left(\mathbb

Embedded Dot Product Affinity

Embedded Dot Product Affinity: An Overview Embedded Dot Product Affinity is a specific type of self-similarity function. This function quantifies the similarity between two points in a space. The function makes use of a dot product function for this purpose in an embedding space. Embedded Dot Product Affinity is a widely used method in machine learning algorithms, particularly in image processing applications. What is Affinity and Self-Similarity? Affinity is a mathematical term that describ

Embedded Gaussian Affinity

Embedded Gaussian Affinity: A Self-Similarity Function Embedded Gaussian Affinity is a type of self-similarity function used to measure the similarity between two points. It is often used in computer vision to help machines better understand images and videos. The Math Behind Embedded Gaussian Affinity The function uses a Gaussian function in an embedding space. The formula for Embedded Gaussian Affinity is: f(xi, xj) = eθ(xi)TΦ(xj) Here, θ(xi) = Wθxi and Π(xj) = Wφxj are two embeddings.

Gaussian Affinity

What is Gaussian Affinity? Gaussian Affinity is a mathematical concept used in machine learning and data analysis. It is a type of self-similarity function that measures the similarity between two data points. Gaussian Affinity is based on a Gaussian function which uses the dot-product similarity between the two data points. How does Gaussian Affinity work? The Gaussian Affinity between two points, $\mathbb{x\_{i}}$ and $\mathbb{x\_{j}}$, is calculated using the following formula: $$ f\left

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