Two-Dimensional Signal and Image Processing (Prentice-hall Signal Processing Series)
New to P-H Signal Processing Series (Alan Oppenheim, Series Ed) this text covers the principles and applications of "multidimensional" and "image" digital signal processing. For Sr/grad level courses in image processing in EE departments.
Why Read This Book
You will get a rigorous, DSP-centered treatment of multidimensional signals that connects 2-D Fourier theory to practical image filtering and restoration methods. The book emphasizes mathematical foundations and gives you the tools to analyze and design 2-D filters and frequency-domain image-processing algorithms.
Who Will Benefit
Advanced undergraduates, graduate students, and practicing engineers working on image processing or multidimensional signal problems who need a solid theoretical foundation and practical filtering/restoration techniques.
Level: Advanced — Prerequisites: Undergraduate signals and systems, 1-D DSP (Fourier transforms, convolution), linear algebra, and basic calculus; familiarity with MATLAB is helpful for implementing examples.
Key Takeaways
- Apply the 2-D Fourier transform and its properties to analyze images and other multidimensional signals
- Analyze and mitigate sampling and aliasing effects in two dimensions and design correct reconstruction schemes
- Design and implement 2-D spatial and frequency-domain filters (separable and nonseparable FIR/IIR)
- Perform image restoration and enhancement using inverse filtering, Wiener filtering, and other frequency-domain methods
- Use correlation and spectral analysis tools for detection, pattern matching, and texture analysis in images
Topics Covered
- Introduction and basic concepts of 2-D signals and systems
- The two-dimensional continuous- and discrete-time Fourier transforms
- Sampling and reconstruction in two dimensions; aliasing and sampling lattices
- The 2-D discrete Fourier transform, periodicity, and computational issues
- Spatial-domain filtering: convolution, separable and nonseparable filters
- Frequency-domain filtering and implementation techniques
- Design of 2-D FIR and IIR filters
- Image restoration: inverse filtering, Wiener filtering, and constrained methods
- Homomorphic and nonlinear enhancement techniques
- Correlation, pattern matching, and spectral estimation in 2-D
- Practical considerations and examples; brief treatment of multiresolution/transform methods
Languages, Platforms & Tools
How It Compares
More theory-focused and DSP-centric than Gonzalez & Woods' Digital Image Processing (which is more application and example oriented); similar in spirit to Oppenheim-style rigorous treatments but specialized to multidimensional signals.












