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MATLABdata~30 mins

Singular value decomposition (svd) in MATLAB - Mini Project: Build & Apply

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Singular value decomposition (svd)
📖 Scenario: You work as a data analyst and want to understand the structure of a matrix representing some data. Singular value decomposition (SVD) helps break down the matrix into simpler parts.
🎯 Goal: Learn how to perform singular value decomposition on a matrix in MATLAB and display the decomposed matrices.
📋 What You'll Learn
Create a matrix variable named A with exact values
Create a variable k to select the number of singular values
Use MATLAB's svd function to decompose the matrix A
Display the matrices U, S, and V from the decomposition
💡 Why This Matters
🌍 Real World
Singular value decomposition is used in image compression, noise reduction, and data analysis to simplify complex data.
💼 Career
Understanding SVD is important for data scientists, engineers, and researchers working with large datasets and machine learning.
Progress0 / 4 steps
1
Create the matrix A
Create a 3x3 matrix called A with these exact values: first row [1 2 3], second row [4 5 6], third row [7 8 9].
MATLAB
Need a hint?

Use square brackets and semicolons to create rows in MATLAB.

2
Set the number of singular values k
Create a variable called k and set it to 2 to select the first two singular values.
MATLAB
Need a hint?

Just assign the number 2 to the variable k.

3
Perform singular value decomposition
Use the MATLAB svd function to decompose matrix A into U, S, and V. Write [U, S, V] = svd(A);.
MATLAB
Need a hint?

Use square brackets to capture multiple outputs from svd.

4
Display the matrices U, S, and V
Use disp to print the matrices U, S, and V in order.
MATLAB
Need a hint?

Use disp('Matrix U:') before displaying U to label the output.