
Learn the basics of digital image processing with MATLAB, defining images as 2d intensity functions and pixels, and using the image processing toolbox with MATLAB's desktop tools.
Master the fundamentals of digital images in MATLAB, covering intensity, monochrome and RGB components, sampling and digitization, and reading, displaying, and indexing image pixels.
Learn to create m-files and user defined functions in matlab, including function definitions, help text, inputs and outputs, and basic flow control with vectorization and preallocation.
Explore intensity transformations in the spatial domain, including gamma correction, logarithmic and contrast stretching, and thresholding, with MATLAB toolbox functions for histogram processing and matching.
Explore linear and nonlinear spatial filtering in MATLAB, using correlation or convolution, border handling, and predefined filters; learn median filtering to reduce salt-and-pepper noise.
Explore frequency domain processing in MATLAB: compute the dft with fft2, pad and shift to center, apply low-pass and hypersphere high-frequency emphasis filters, then inverse transform.
Explore image restoration and reconstruction using degradation models, additive noise, and point spread function. Apply Fourier-based transfer functions, deconvolution, and filtering, then master geometric transformations and image registration for alignment.
Learn color image processing in matlab by combining red, green, and blue components. Work with indexed images and color maps; explore RGB, NTSC, and HSV spaces; apply smoothing and sharpening.
Explore the discrete wavelet transform for multi-resolution image analysis, using MATLAB's wavelet toolbox to decompose and reconstruct images with low-pass and high-pass filters across scales.
Explore image compression through encoder-decoder pipelines, measure with compression ratio, and analyze redundancies—coding, spatial and visual—entropy, quantization, and jpeg-style 8x8 block processing.
Explore morphological image processing using dilation and erosion on binary images, applying opening, closing, hit-or-miss, skeletonization, labeling connected components, and morphological reconstruction with structuring elements in MATLAB.
Master the fundamentals of digital image processing in MATLAB by reading and displaying images, performing indexing, and using function handles and anonymous functions.
Explore intensity transformations and linear spatial filtering in MATLAB, including histogram equalization and dynamic range adjustments to enhance image contrast.
Explore filtering in the frequency domain using MATLAB by constructing and shifting filters, computing the spectrum, and applying inverse transforms to visualize how frequency components affect images.
Learn how to convert spatial filters to frequency domain representations using the Fourier transform, display spectra, and apply frequency domain filters for image processing in MATLAB.
Explore image restoration in MATLAB by modeling degradation, adding noise, and applying adaptive spatial and spectral filters, including blind deconvolution.
Explore image reconstruction in MATLAB using Shepp-Logan and modified Shepp-Logan phantoms, display reconstructed images, and apply transforms and cubic interpolation techniques.
Explore geometric transformations by constructing forward and inverse functions for points, apply scaling and frame transformations, and build projective transformations with matrix forms.
Explains color image processing by extracting RGB components, demonstrating smoothing, sharpening, and Laplacian filtering, and showing how to combine components for enhanced color images.
Explore morphological image processing in MATLAB by using a diamond structuring element to perform dilation, erosion, opening, closing, and hit-or-miss transformations on digital images.
This lecture explains image segmentation through edge detection using Sobel operators to compute gradients and refine edge maps with 45-degree Sobel responses.
DIP (Digital image processing) is the use of computer algorithms to create, process, communicate and display digital images. As MATLAB is a high-performance language for technical computing with powerful commands and syntax, it is widely used for the DIP. The main purpose of Digital Image processing(DIP) is that the result is more fit than the initial image for a particular use.
Digital image processing methods provide a number of choices for improving the visual quality of images (e.g. image enhancement, images segmentation, images registration). Suitable selection of such methods is considerably controlled by the imaging modality, job at hand and viewing conditions.
Digital image processing algorithms can be used to:
Transform signals from an image sensor into digital images
Increase clarity, and eliminate noise and other artifacts
Obtain the size, scale, or number of objects in a picture
Prepare images for display or printing
Compress images for transfer across a network
By the end of the course, you will be able to
Perform Digital Image Processing using MATLAB
Learn M Function programming
Perform Intensity Transformations
Spatial Filtering
Frequency domain processing
Image Restoration and Reconstruction and Geometric transformations
Color image processing
Wavelets
Morphological image processing
Image segmentation
DIP using MATLAB Certification is included in the course which will be the proof of the new skills you own.
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