Visual Word: Unlocking the Power of Image Understanding
By Fouad Sabry
()
About this ebook
What is Visual Word
Visual words, as used in image retrieval systems, refer to small parts of an image that carry some kind of information related to the features or changes occurring in the pixels such as the filtering, low-level feature descriptors.
How you will benefit
(I) Insights, and validations about the following topics:
Chapter 1: Visual Word
Chapter 2: Code
Chapter 3: Information retrieval
Chapter 4: Image segmentation
Chapter 5: Automatic summarization
Chapter 6: Latent semantic analysis
Chapter 7: Content-based image retrieval
Chapter 8: N-gram
Chapter 9: Document-term matrix
Chapter 10: Full-text search
(II) Answering the public top questions about visual word.
(III) Real world examples for the usage of visual word in many fields.
Who this book is for
Professionals, undergraduate and graduate students, enthusiasts, hobbyists, and those who want to go beyond basic knowledge or information for any kind of Visual Word.
Related to Visual Word
Titles in the series (100)
Gamma Correction: Enhancing Visual Clarity in Computer Vision: The Gamma Correction Technique Rating: 0 out of 5 stars0 ratingsFilter Bank: Insights into Computer Vision's Filter Bank Techniques Rating: 0 out of 5 stars0 ratingsComputer Stereo Vision: Exploring Depth Perception in Computer Vision Rating: 0 out of 5 stars0 ratingsRetinex: Unveiling the Secrets of Computational Vision with Retinex Rating: 0 out of 5 stars0 ratingsTone Mapping: Tone Mapping: Illuminating Perspectives in Computer Vision Rating: 0 out of 5 stars0 ratingsAnisotropic Diffusion: Enhancing Image Analysis Through Anisotropic Diffusion Rating: 0 out of 5 stars0 ratingsUnderwater Computer Vision: Exploring the Depths of Computer Vision Beneath the Waves Rating: 0 out of 5 stars0 ratingsRadon Transform: Unveiling Hidden Patterns in Visual Data Rating: 0 out of 5 stars0 ratingsNoise Reduction: Enhancing Clarity, Advanced Techniques for Noise Reduction in Computer Vision Rating: 0 out of 5 stars0 ratingsHomography: Homography: Transformations in Computer Vision Rating: 0 out of 5 stars0 ratingsColor Management System: Optimizing Visual Perception in Digital Environments Rating: 0 out of 5 stars0 ratingsColor Matching Function: Understanding Spectral Sensitivity in Computer Vision Rating: 0 out of 5 stars0 ratingsImage Histogram: Unveiling Visual Insights, Exploring the Depths of Image Histograms in Computer Vision Rating: 0 out of 5 stars0 ratingsComputer Vision: Exploring the Depths of Computer Vision Rating: 0 out of 5 stars0 ratingsActive Appearance Model: Unlocking the Power of Active Appearance Models in Computer Vision Rating: 0 out of 5 stars0 ratingsAdaptive Filter: Enhancing Computer Vision Through Adaptive Filtering Rating: 0 out of 5 stars0 ratingsInpainting: Bridging Gaps in Computer Vision Rating: 0 out of 5 stars0 ratingsColor Space: Exploring the Spectrum of Computer Vision Rating: 0 out of 5 stars0 ratingsHistogram Equalization: Enhancing Image Contrast for Enhanced Visual Perception Rating: 0 out of 5 stars0 ratingsImage Compression: Efficient Techniques for Visual Data Optimization Rating: 0 out of 5 stars0 ratingsVisual Perception: Insights into Computational Visual Processing Rating: 0 out of 5 stars0 ratingsHuman Visual System Model: Understanding Perception and Processing Rating: 0 out of 5 stars0 ratingsColor Appearance Model: Understanding Perception and Representation in Computer Vision Rating: 0 out of 5 stars0 ratingsOriented Gradients Histogram: Unveiling the Visual Realm: Exploring Oriented Gradients Histogram in Computer Vision Rating: 0 out of 5 stars0 ratingsDirect Linear Transformation: Practical Applications and Techniques in Computer Vision Rating: 0 out of 5 stars0 ratingsHadamard Transform: Unveiling the Power of Hadamard Transform in Computer Vision Rating: 0 out of 5 stars0 ratingsScale Invariant Feature Transform: Unveiling the Power of Scale Invariant Feature Transform in Computer Vision Rating: 0 out of 5 stars0 ratingsAffine Transformation: Unlocking Visual Perspectives: Exploring Affine Transformation in Computer Vision Rating: 0 out of 5 stars0 ratingsJoint Photographic Experts Group: Unlocking the Power of Visual Data with the JPEG Standard Rating: 0 out of 5 stars0 ratingsHough Transform: Unveiling the Magic of Hough Transform in Computer Vision Rating: 0 out of 5 stars0 ratings
Related ebooks
Perceptual Computing: Fundamentals and Applications Rating: 0 out of 5 stars0 ratingsSemantic Network: Fundamentals and Applications Rating: 0 out of 5 stars0 ratingsAudio Visual Speech Recognition: Advancements, Applications, and Insights Rating: 0 out of 5 stars0 ratingsIntroduction to SystemVerilog Rating: 0 out of 5 stars0 ratingsKnowledge Reasoning: Fundamentals and Applications Rating: 0 out of 5 stars0 ratingsVector Embeddings and Data Representation: Techniques and Applications Rating: 0 out of 5 stars0 ratingsRelationship Extraction: Fundamentals and Applications Rating: 0 out of 5 stars0 ratingsArtificial Intelligence Frame: Fundamentals and Applications Rating: 0 out of 5 stars0 ratingsHuman Visual System Model: Understanding Perception and Processing Rating: 0 out of 5 stars0 ratingsConceptual Dependency Theory: Fundamentals and Applications Rating: 0 out of 5 stars0 ratingsConcept Mining: Fundamentals and Applications Rating: 0 out of 5 stars0 ratingsAutomatic Image Annotation: Enhancing Visual Understanding through Automated Tagging Rating: 0 out of 5 stars0 ratingsSemantic Translation: Fundamentals and Applications Rating: 0 out of 5 stars0 ratingsMastering Computer Programming: A Comprehensive Guide Rating: 0 out of 5 stars0 ratingsAutomatic Image Annotation: Fundamentals and Applications Rating: 0 out of 5 stars0 ratingsIntroduction to Programming Languages Rating: 4 out of 5 stars4/5Domain-Specific Languages in R: Advanced Statistical Programming Rating: 0 out of 5 stars0 ratingsSemantic Modeling In Formal English Rating: 0 out of 5 stars0 ratingsBeginning Ring Programming: From Novice to Professional Rating: 0 out of 5 stars0 ratingsC# Data Structures and Algorithms: Harness the power of C# to build a diverse range of efficient applications Rating: 0 out of 5 stars0 ratingsSpeech Generating Device: Fundamentals and Applications Rating: 0 out of 5 stars0 ratingsConstraint Satisfaction: Fundamentals and Applications Rating: 0 out of 5 stars0 ratingsIntroducing Vala Programming: A Language and Techniques to Boost Productivity Rating: 0 out of 5 stars0 ratingsSpeaker Recognition: Fundamentals and Applications Rating: 0 out of 5 stars0 ratingsIntroduction to LLMs for Business Leaders: Responsible AI Strategy Beyond Fear and Hype: Byte-Sized Learning Series Rating: 0 out of 5 stars0 ratingsData Structures and Algorithms with Go: Create efficient solutions and optimize your Go coding skills (English Edition) Rating: 0 out of 5 stars0 ratingsWeb Applications with Elm: Functional Programming for the Web Rating: 0 out of 5 stars0 ratingsIntroduction to Reliable and Secure Distributed Programming Rating: 0 out of 5 stars0 ratingsLanguage Identification: Fundamentals and Applications Rating: 0 out of 5 stars0 ratingsFrom Zero to Market with Flutter: Desktop, Mobile, and Web Distribution Rating: 0 out of 5 stars0 ratings
Intelligence (AI) & Semantics For You
Artificial Intelligence: A Guide for Thinking Humans Rating: 4 out of 5 stars4/52084: Artificial Intelligence and the Future of Humanity Rating: 4 out of 5 stars4/5Summary of Super-Intelligence From Nick Bostrom Rating: 5 out of 5 stars5/5Build a Career in Data Science Rating: 5 out of 5 stars5/5ChatGPT For Fiction Writing: AI for Authors Rating: 5 out of 5 stars5/5Chat-GPT Income Ideas: Pioneering Monetization Concepts Utilizing Conversational AI for Profitable Ventures Rating: 3 out of 5 stars3/5The Secrets of ChatGPT Prompt Engineering for Non-Developers Rating: 5 out of 5 stars5/5Mastering ChatGPT: 21 Prompts Templates for Effortless Writing Rating: 5 out of 5 stars5/5ChatGPT For Dummies Rating: 4 out of 5 stars4/5Dark Aeon: Transhumanism and the War Against Humanity Rating: 5 out of 5 stars5/5101 Midjourney Prompt Secrets Rating: 3 out of 5 stars3/5Creating Online Courses with ChatGPT | A Step-by-Step Guide with Prompt Templates Rating: 4 out of 5 stars4/5Midjourney Mastery - The Ultimate Handbook of Prompts Rating: 5 out of 5 stars5/5AI for Educators: AI for Educators Rating: 5 out of 5 stars5/5Make Money with ChatGPT: Your Guide to Making Passive Income Online with Ease using AI: AI Wealth Mastery Rating: 0 out of 5 stars0 ratingsKiller ChatGPT Prompts: Harness the Power of AI for Success and Profit Rating: 2 out of 5 stars2/5Artificial Intelligence For Dummies Rating: 3 out of 5 stars3/5Writing AI Prompts For Dummies Rating: 0 out of 5 stars0 ratingsThe Roadmap to AI Mastery: A Guide to Building and Scaling Projects Rating: 3 out of 5 stars3/5Enterprise AI For Dummies Rating: 3 out of 5 stars3/5Prompt Engineering ; The Future Of Language Generation Rating: 4 out of 5 stars4/5
Reviews for Visual Word
0 ratings0 reviews
Book preview
Visual Word - Fouad Sabry
Chapter 1: Visual Word
Visual words, as employed in image retrieval systems, refer to short portions of an image that hold information about the features (such as the color, shape, or texture) or changes in the pixels, such as the filtering, low-level feature descriptors (SIFT or SURF).
Text retrieval system (or information retrieval system) methodologies
Consider that the pixels of an image, which are the tiniest portions of a digital image and cannot be divided further, are similar to the alphabetical letters of a language. Then, a group of pixels within an image (a patch or arrays of pixels) constitutes a word. Then, each word can be reprocessed within a morphological system to retrieve a related term. Then, multiple words with the same meaning will refer to the same concept (like in any language). Numerous words share the same meaning and constitute the same phrase (have the same information). According to this perspective, researchers can adapt text retrieval techniques to picture retrieval systems.
This approach can be applied to games in order to determine which words and phrases will appear in our visuals. The objective is to attempt to comprehend the images using a vocabulary of visual words.
.
A small region of a picture that can include any information in any feature space, such as color or texture changes.
Generally speaking, visual words (VWs) exist in a feature space of continuous values, implying a vast number of words and, consequently, a vast language. Since image retrieval systems must use text retrieval techniques depending on natural languages, which have a limit on the number of terms and words, the number of visual words must be reduced.
There are numerous ways to overcome this issue, such as partitioning the feature space into ranges with shared features (which can be considered as the same word). However, this technique has numerous flaws, including the division strategy and the breadth of the range in the feature space. Using a clustering method to classify and merge words conveying common information into a finite number of terms is another solution presented by researchers.
The consequence of clustering in the feature space (centers of the clusters). Multiple patches can provide the closest information in feature space, thus we can consider them equivalent.
As the Term in a text (the infinity verb, nouns, and articles) refers to numerous common words with the same properties, the visual term (with its clustering result) will refer to all common words that shared the same information in a feature space.
Lastly, if all images correspond to the same set of visual concepts, then they can all communicate in the same language (or visual language).
A collection of visual words and phrases.
Considering the visual terms alone is the Visual Vocabulary
which will be the reference and retrieval system that will depend on it for retrieving images.
This visual language will represent all images as a collection of visual words, or bag of visual words.
A collection of visual words that together explain the meaning of a portion or the entire image.
On the basis of this type of picture representation, it is possible to create an image retrieval system using text retrieval techniques. Nevertheless, because all text retrieval systems rely on terms, the user's query images must be transformed into a collection of visual words within the system. The system will then compare these visual terms with every visual term in the database.
{End Chapter 1}
Chapter 2: Code
For the purposes of communication and information processing, a code is a set of principles that transforms information—such as a letter, word, sound, image, or gesture—into another form, sometimes shorter or secret, for storage on a storage device or for transmission over a communication channel. An early example is the development of language, which allowed people to express verbally what they were thinking, seeing, hearing, or feeling to others. However, speaking restricts the audience to those present at the time the speech is delivered and limits the range of communication to the distance a voice may travel. The advent of writing, which transformed verbal communication into visual symbols, increased the potential for communication over time and distance.
Encoding is the process of transforming data from a source into symbols for transmission or storage. The opposite procedure, known as decoding, involves translating code symbols into a language that the recipient may comprehend, such as English or/and Spanish.
Coding is used to facilitate communication in situations when it would be difficult or impossible to do so using regular plain language, either verbally or in writing. For instance, semaphore encrypts portions of the message, generally single characters and numbers, using the arrangement of flags held by the signaler or the arms of the semaphore tower. The flags can be read by someone far away, and they can repeat the messages sent.
A code is typically thought of in information theory and computer science as a method that discretely represents symbols from a source alphabet by encoded strings, which could be in a different target alphabet. Concatenating the encoded strings yields an extension of the code for encoding sequences of symbols across the source alphabet.
This is a small example before providing a definition that is mathematically exact. The diagram
C = \{\, a\mapsto 0, b\mapsto 01, c\mapsto 011\,\}the code, whose source alphabet is the set \{a,b,c\} and whose target alphabet is the set \{0,1\} .
Using the code's extension, the encoded string 0011001 can be grouped into codewords as 0 011 0 01, and these in turn can be used to decode the original symbols' order, acab.
Making use of concepts from formal language theory, The following is a detailed mathematical definition of this idea: S and T should be two finite sets, alphabets known as the source and target, respectively.
A code C:\, S \to T^* is a total function mapping each symbol from S to a sequence of symbols over T.
The extension C' of C , is a homomorphism of S^{*} into T^{*} , It automatically converts every set of source symbols into a set of target symbols.
In this section, we'll talk about codes that translate each source (clear text) character into a code word taken from a dictionary, which when concatenated yields an encoded string. When clear text characters have varied probabilities, variable-length codes are extremely helpful; see also entropy encoding.
A prefix code is one that possesses the property known as the prefix property
: no other valid code word in the set has a prefix (start) that is also a valid code word in the system. The most well-known algorithm for generating prefix codes is huffman coding. Even when the prefix code was not generated by a Huffman method, it is frequently referred to as Huffman codes
. The country and publisher sections of ISBNs, country calling numbers, and the Secondary Synchronization Codes used by the UMTS WCDMA 3G Wireless Standard are additional instances of prefix codes.
The possible sets of codeword lengths in a prefix code are described by Kraft's inequality. Almost any one-to-many code that can be uniquely decoded, not just prefix codes, must satisfy Kraft's inequality.
Additionally, codes can be employed to represent data in a way that is more resilient to transmission or storage failures. The way that this supposedly error-correcting code functions is by carefully constructing redundancy into the stored (or transmitted) data. Examples include the space-time codes, low-density parity-check codes, Reed-Solomon, Reed-Muller, Walsh-Hadamard, Bose-Chaudhuri-Hochquenghem, Turbo, Golay, and Goppa. Error-detecting algorithms can be improved to find random or burst errors.
By substituting shorter words for words like ship
or invoice,
a cable code enables the same information to be communicated with fewer characters, more rapidly, and for