


Exploring Computer Vision (CV): Meaning, Principles, Applications, and Research
Computer vision (CV) is a field of artificial intelligence (AI) that aims to enable computers to imitate the human visual system to better understand and interpret digital images and videos. content. This process mainly involves image acquisition, screening, analysis, recognition and information extraction. It can be said that AI gives computers the ability to think, while CV gives them the ability to observe and understand.
The value of computer vision
Computer vision systems are trained and optimized to analyze a large number of products or processes in real time to help identify problems. Its speed, objectivity, continuity, accuracy and scalability exceed human capabilities. It is able to inspect products, observe infrastructure or production processes, and perform real-time analysis. The application of this technology makes problem discovery more efficient and accurate.
The latest computer vision deep learning models have demonstrated superhuman accuracy and performance in real-world image recognition tasks. These models have achieved significant breakthroughs in facial recognition, object detection, and image classification. With the advancement of technology, computer vision has been widely used in various industries. It plays an important role in security and medical imaging, manufacturing, automotive, agriculture, construction, smart cities, transportation, and more. Moreover, with the continuous development of technology, computer vision has become more flexible and scalable, which also brings the possibility of more practical application cases.
According to relevant media estimates, the computer vision market will reach US$144 billion by 2028.
Computer vision working steps and principles
Let us first understand the basic working steps of computer vision:
Step 1, image acquisition, the camera or image sensor inputs digital images.
Step 2, preprocessing, the original image input needs to be preprocessed to optimize the performance of subsequent computer vision tasks. Preprocessing includes noise reduction, contrast enhancement, rescaling or image cropping.
Step 3, algorithm processing, computer vision algorithms perform object detection, image segmentation and classification on each image or video frame.
Step 4, rule processing, the output information needs to be processed according to the use case condition rules. This part performs automation based on information obtained from computer vision tasks.
Let’s take a look at the working principle of computer vision:
Modern computer vision systems combine image processing, machine learning and deep learning technology, relying on Pattern recognition and deep learning to self-train and understand visual data. Traditional computer vision uses machine learning, but now deep learning methods have evolved into better solutions in this field.
Many high-performance methods in modern computer vision applications are based on convolutional neural networks (CNN). This layered neural network allows computers to understand image data contextually. Given enough data, the computer learns how to differentiate between images. As the image data passes through the model, the computer applies a CNN to view the data. CNNs help deep learning models understand images by breaking them down into pixels, which are given labels to train specific features, so-called image annotations. The model performs convolutions using the labels and makes predictions about what it sees, and iteratively checks the accuracy of the predictions until the predictions are as expected. Deep learning relies on neural networks and uses examples to solve problems. It learns on its own by using labeled data to identify common use cases in examples.
Application fields of computer vision
Manufacturing industry: Industrial computer vision is used in the manufacturing industry for automated product inspection, object counting, and process automation. , and improve employee safety through PPE testing and mask testing.
Healthcare: Among the applications of computer vision in healthcare, a prominent example is automatic human fall detection to create fall risk scores and trigger alerts.
Security: In video surveillance and security, personnel detection is performed to achieve intelligent perimeter monitoring.
Agriculture: A use case for computational vision in agriculture is to automatically monitor animals and detect animal diseases and abnormalities early.
Smart Cities: Computer vision is used in smart cities for crowd analysis, traffic analysis, vehicle counting and infrastructure inspection.
Retail: Video from retail store surveillance cameras can be used to track customer movement patterns for people counting or traffic analysis.
Insurance: Computer Vision in Insurance leverages AI vision for automated risk management and assessment, claims management, and forward-looking analysis.
Logistics: Automation to save costs through reduced human error, predictive maintenance and accelerated operations across the supply chain.
Pharmaceutical: Computer vision in the pharmaceutical industry is used for packaging inspection, capsule identification, and visual inspection of equipment cleaning.
Computer Vision Research Direction
Object recognition: Determine whether image data contains one or more specified or learned objects or object classes.
Facial recognition: Recognize faces by matching them to a database.
Object detection: Analyze image data for specific conditions and locate semantic objects of a given class.
Pose estimation: Estimating the relative direction and position of a specific object.
Optical character recognition: Recognizes characters in images, often combined with text encoding.
Scene understanding: Parse images into meaningful segments for analysis.
Motion Analysis: Track the movement of points of interest or objects in an image sequence or video.
The above is the detailed content of Exploring Computer Vision (CV): Meaning, Principles, Applications, and Research. For more information, please follow other related articles on the PHP Chinese website!

Hot AI Tools

Undresser.AI Undress
AI-powered app for creating realistic nude photos

AI Clothes Remover
Online AI tool for removing clothes from photos.

Undress AI Tool
Undress images for free

Clothoff.io
AI clothes remover

AI Hentai Generator
Generate AI Hentai for free.

Hot Article

Hot Tools

Notepad++7.3.1
Easy-to-use and free code editor

SublimeText3 Chinese version
Chinese version, very easy to use

Zend Studio 13.0.1
Powerful PHP integrated development environment

Dreamweaver CS6
Visual web development tools

SublimeText3 Mac version
God-level code editing software (SublimeText3)

Hot Topics

This site reported on June 27 that Jianying is a video editing software developed by FaceMeng Technology, a subsidiary of ByteDance. It relies on the Douyin platform and basically produces short video content for users of the platform. It is compatible with iOS, Android, and Windows. , MacOS and other operating systems. Jianying officially announced the upgrade of its membership system and launched a new SVIP, which includes a variety of AI black technologies, such as intelligent translation, intelligent highlighting, intelligent packaging, digital human synthesis, etc. In terms of price, the monthly fee for clipping SVIP is 79 yuan, the annual fee is 599 yuan (note on this site: equivalent to 49.9 yuan per month), the continuous monthly subscription is 59 yuan per month, and the continuous annual subscription is 499 yuan per year (equivalent to 41.6 yuan per month) . In addition, the cut official also stated that in order to improve the user experience, those who have subscribed to the original VIP

Improve developer productivity, efficiency, and accuracy by incorporating retrieval-enhanced generation and semantic memory into AI coding assistants. Translated from EnhancingAICodingAssistantswithContextUsingRAGandSEM-RAG, author JanakiramMSV. While basic AI programming assistants are naturally helpful, they often fail to provide the most relevant and correct code suggestions because they rely on a general understanding of the software language and the most common patterns of writing software. The code generated by these coding assistants is suitable for solving the problems they are responsible for solving, but often does not conform to the coding standards, conventions and styles of the individual teams. This often results in suggestions that need to be modified or refined in order for the code to be accepted into the application

To learn more about AIGC, please visit: 51CTOAI.x Community https://www.51cto.com/aigc/Translator|Jingyan Reviewer|Chonglou is different from the traditional question bank that can be seen everywhere on the Internet. These questions It requires thinking outside the box. Large Language Models (LLMs) are increasingly important in the fields of data science, generative artificial intelligence (GenAI), and artificial intelligence. These complex algorithms enhance human skills and drive efficiency and innovation in many industries, becoming the key for companies to remain competitive. LLM has a wide range of applications. It can be used in fields such as natural language processing, text generation, speech recognition and recommendation systems. By learning from large amounts of data, LLM is able to generate text

Large Language Models (LLMs) are trained on huge text databases, where they acquire large amounts of real-world knowledge. This knowledge is embedded into their parameters and can then be used when needed. The knowledge of these models is "reified" at the end of training. At the end of pre-training, the model actually stops learning. Align or fine-tune the model to learn how to leverage this knowledge and respond more naturally to user questions. But sometimes model knowledge is not enough, and although the model can access external content through RAG, it is considered beneficial to adapt the model to new domains through fine-tuning. This fine-tuning is performed using input from human annotators or other LLM creations, where the model encounters additional real-world knowledge and integrates it

Editor |ScienceAI Question Answering (QA) data set plays a vital role in promoting natural language processing (NLP) research. High-quality QA data sets can not only be used to fine-tune models, but also effectively evaluate the capabilities of large language models (LLM), especially the ability to understand and reason about scientific knowledge. Although there are currently many scientific QA data sets covering medicine, chemistry, biology and other fields, these data sets still have some shortcomings. First, the data form is relatively simple, most of which are multiple-choice questions. They are easy to evaluate, but limit the model's answer selection range and cannot fully test the model's ability to answer scientific questions. In contrast, open-ended Q&A

Editor | KX In the field of drug research and development, accurately and effectively predicting the binding affinity of proteins and ligands is crucial for drug screening and optimization. However, current studies do not take into account the important role of molecular surface information in protein-ligand interactions. Based on this, researchers from Xiamen University proposed a novel multi-modal feature extraction (MFE) framework, which for the first time combines information on protein surface, 3D structure and sequence, and uses a cross-attention mechanism to compare different modalities. feature alignment. Experimental results demonstrate that this method achieves state-of-the-art performance in predicting protein-ligand binding affinities. Furthermore, ablation studies demonstrate the effectiveness and necessity of protein surface information and multimodal feature alignment within this framework. Related research begins with "S

Machine learning is an important branch of artificial intelligence that gives computers the ability to learn from data and improve their capabilities without being explicitly programmed. Machine learning has a wide range of applications in various fields, from image recognition and natural language processing to recommendation systems and fraud detection, and it is changing the way we live. There are many different methods and theories in the field of machine learning, among which the five most influential methods are called the "Five Schools of Machine Learning". The five major schools are the symbolic school, the connectionist school, the evolutionary school, the Bayesian school and the analogy school. 1. Symbolism, also known as symbolism, emphasizes the use of symbols for logical reasoning and expression of knowledge. This school of thought believes that learning is a process of reverse deduction, through existing

According to news from this site on August 1, SK Hynix released a blog post today (August 1), announcing that it will attend the Global Semiconductor Memory Summit FMS2024 to be held in Santa Clara, California, USA from August 6 to 8, showcasing many new technologies. generation product. Introduction to the Future Memory and Storage Summit (FutureMemoryandStorage), formerly the Flash Memory Summit (FlashMemorySummit) mainly for NAND suppliers, in the context of increasing attention to artificial intelligence technology, this year was renamed the Future Memory and Storage Summit (FutureMemoryandStorage) to invite DRAM and storage vendors and many more players. New product SK hynix launched last year
