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Revolutionizing Quality Control with Computer Vision

By Umang Dayal

March 22, 2024

According to McKinsey & Company, businesses that utilized computer vision for quality assessments reported a 90% improvement in detecting defective items.

By imitating human vision, computer vision can identify product defects, measure dimensions, classify objects, and accurately assess quality. Let’s learn more about computer vision use cases in quality assurance and how it is transforming various industries.

Computer Vision Enhancing Quality Control

Computer vision is a subfield of artificial intelligence that develops ML models capable of understanding, interpreting, and identifying visual data. CV technology can be deployed in manufacturing processes via sensors, cameras, and radars to offer real-time analysis, allowing quick decision-making and reducing errors.

CV models are invaluable assets for quality control which allows integration of automation in the production line, avoids incorrect supply chain management, and reduces costs. The time and effort required for manual labor are reduced significantly, and talent can be allocated to more decisive functions.

Computer vision is already streamlining quality control and verification processes for many industries. In the FMCG category, where each product contains a specific expiry date, APRIL Eye combines ML algorithms with computer vision to simplify the traditionally used date code verification system. If the date code seems incorrect, the production line comes to a halt so no expired product is released in the supply chain. This whole verification method is fully automated to save time and allow FMCG products to achieve full traceability and efficiency.

How Computer Vision is Revolutionizing Quality Control

Enhancing Defect Detection

Computer vision models can be trained to analyze images or videos of items to detect flaws and abnormalities. These systems can assist in identifying minor faults, and critical defects and provide real-time alerts to manufacturers to take immediate corrective measures.

Computer Vision used for Coating Inspection

The first thing that buyers see after unpacking medicines is the coating of tablets. This is the major reason why pharma companies are extremely particular about coating instructions.

Computer vision can be used for coating inspection and quality assurance. These CV algorithms can analyze large quantities of tablets, and if a pill does not meet the standard criteria, the system will display rejected tablets for manual inspection. CV systems can inspect thousands of tablets in an hour and reduce the load for manual inspection of such tiny objects.

Computer Vision Battling Corrosion

Oil and gas companies use specialized CV systems for identifying corrosion on their offshore and marine structures. They cannot gather sufficient data from these offshore structures due to their large dimensions and inaccessible areas. Computer vision-integrated drones can be used to gather this data and identify the exact location of damages. These CV systems can evaluate the damaged areas and see real-time pictures of corrosion to take corrective actions.

Precision Measurement and Dimension Analysis

Advanced computer vision systems utilizing high-resolution cameras and sensors can measure various attributes such as height, weight, length, angles, and distance of objects. The machines can measure these attributes against predetermined specifications to ensure every product meets the required standards. When implemented practically, these CV systems allow manufacturers to maintain product consistency and prevent additional costs.

Read more: The Impact of Computer Vision on E-commerce Customer Experience

Real-time Monitoring and Process Control

Computer vision allows real-time monitoring of the supply chain operations. These AI-driven CV systems can capture visual data and analyze objects in a production line, allowing the workforce to identify deviations and take corrective actions.

Manufacturing companies can utilize these insights to make informed decisions and optimize the production process. Real-time monitoring and process control help identify defective products at the early stage to prevent large-scale production of deficient items or increase additional costs.

Seamless Integration

Manufacturing processes can be easily integrated with computer vision technology for seamless automation and efficient operations. CV models can assist manufacturers with uninterrupted quality assessment and inspection adhering to standard protocols. These systems can provide data insights by analyzing market trends, failure patterns, and scope for improvement.

Automated Defect Detection

A major challenge in quality control is the identification of defective items, which can be time-consuming, costly, and contain the potential for errors. Computer vision models can be utilized to analyze defective items and compare them to pre-defined standards. These automated CV algorithms can improve accuracy, reduce costs, and minimize human error.

Quality Control through Visual Inspection

Human quality inspectors can miss minor defects due to fatigue, overwork, or tired eyes. Computer vision can work non-stop for a longer period of time as it is not limited to human capabilities. These machines can perform visual inspection with more accuracy and without witnessing general fatigue or tired eyes. By minimizing manual processes and deploying a human workforce in a more efficient and decisive role, companies can expand operations and focus on achieving customer satisfaction.

The Future of Computer Vision in Product Inspection

Food Marketing Institute recently conducted a survey, and it revealed that 68% of retail grocery stores are considering the adoption of computer vision as their top investment priority. Another study, published by the International Journal of Engineering Research and Technology emphasized the importance of computer vision in quality control and defect detection, which can achieve 98.5% accuracy in various industries.

As computer vision technology is expanding rapidly we can expect more innovations in quality control and defect identification. Companies adopting CV systems will improve their overall production efficiency by analyzing real-time insights, reducing defects, and quality control. Computer vision technology can be integrated with other innovative technologies such as the Internet of Things (IoT) and robotics to enhance productivity and optimize operations.

Final Thoughts

Computer vision’s ability to automate product inspection can revolutionize how manufacturers maintain and manage quality. With data-driven CV systems, businesses can minimize human error and ensure that flawless products reach the market. These CV algorithms are simplifying how the quality inspection process is conducted and operations are automated for improved efficiency, and cost reduction. This revolution can immensely boost customer satisfaction and enhance brand loyalty.

If you are looking for innovative computer vision solutions for quality control, DDD can assist you with their highly accurate human-in-the-loop annotation services.

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The Art of Data Annotation in Machine Learning

Data annotation has redefined machine learning by taking the spotlight for developing efficient and reliable machine learning algorithms. The industry is thriving today and by 2030, the market for data collection and labeling is projected to grow at a CAGR of 28.9%.

Data annotation helps a machine learning model to predict and fine-tune its assumptions accurately. This ranges from autonomous vehicles to facial recognition by a smartphone and much more. It plays a significant role in converting visual data into interpretable information. Now that the basics are covered, let’s explore more about data annotation and its use cases in machine learning.

What is Data Annotation?

Data annotation is the systematic process of labeling, tagging, or marking information in images, videos, or text to help AI models perceive the world as we humans do. Generally, data annotation acts like a teacher for students (AI and ML models) to learn the patterns and behaviors for better prediction and smoother result generation. Thus, helping it to understand human behavior and language from a better perspective.

Through data annotation, AI and ML models can easily function in complex environments and interact with users like Virtual Assistants. In computer vision, auditory and visual data are processed at a higher level to provide users with accurate results. Other use cases for data annotation range from algorithms for healthcare diagnostics to precision farming, paving the way for converting unstructured raw data into insightful information.

The Art of Data Annotation in Machine Learning

Data annotation isn’t a one-stop solution to train your ML models. Instead, it is a customized solution that helps train your machine-learning model for its functionalities and data sets. Thus, to understand the different types of data annotation in machine learning, a few techniques are described below.

Data Annotation for Object Detection

Data annotation helps machine learning models in the detection of objects, assisting autonomous vehicles with navigation and providing better driving assistance. In supply chain management, it can also be used in warehouses to locate different types of items, track movement, and manage inventory.

Audio/Video Annotation

Annotation spans far and wide and its application in audio and video is undeniable. Facial recognition in security systems is a perfect use-case scenario for image data annotation, used in smartphones. Similarly, video is another area where data annotation helps in identifying moving objects which is crucial in applications like traffic monitoring and sports analysis. Speech recognition and voice identification are the brainchild of data annotation where audio files are transcribed and labeled using machine learning algorithms.

Emotional and Sentimental Annotation

Computer vision helps in deciphering the emotional and sentimental quotient in the audio/text file to provide inputs on customer behavior and opinions. Which is perfect for assessing customer feedback, and survey reports across digital platforms.

Natural Language Processing Annotation

NLP annotation trains the machine learning models to understand the contextual tone of the user to provide relevant feedback in real-time. It is done by either tagging certain contexts or parsing sentences to understand the data entered by the user. This technology is responsible for the development of various chatbots and virtual assistants.

Annotation in SEO Enhancement

Data annotation helps in optimizing the generated results in a search engine. Certain keywords are tagged such that algorithms can quickly navigate various URLs and load pages relevant to a particular keyword. However, certain guidelines and parameters are laid down by the search engine to showcase genuine URLs.

Learn more: Computer Vision Trends That Will Help Businesses in 2024

Simplifying The Process of Data Annotation

Data annotation follows a structured, sophisticated, and layered approach to ensure that the machine-learning model is functioning successfully. To understand these steps, we have segregated them for better understanding.

Task and Guidelines Definition

The first and foremost step is to lay down the foundation of the project in which the objectives, goals, scope, and intent behind the data annotation process are to be defined clearly. It is necessary to determine the level of annotation required along with the format and type of data sets.

Incorporation of High-Quality Data Sets

For the smooth functioning of any machine learning model, data quality is most important. Data can be in any form such as videos, audio files, text, and images. Ensure that you gather only high-quality data since the output quality of the machine learning system is proportional to the data it was trained upon.

Choosing the Right Data Annotation Tools and Services

Once the data is gathered, the next step is the selection of data annotation services that are completely based on your requirements. However, ensure that the service you choose offers robust results and scalability potential of the project. A rule of thumb in selecting the data annotation service is to understand the format & type of data, and the level of annotation required. Based on these factors, you can choose the appropriate tools and services that fulfill your project requirements.

Quality Control

Quality control is an ongoing process in data annotation. However, once the data is completely annotated testing models for inaccurate data is the key. Having manual and automated interventions can help streamline the process of identifying errors and inconsistencies. Once the model is trained, then implementing it in real-life applications can help in identifying errors and scope for improvements. Do remember that based on your project, the machine learning model will need continuous refinement (and training based on the new data set) to ensure smooth operations.

Learn more: The Impact of Computer Vision on E-commerce Customer Experience

Future Challenges of Data Annotation in Machine Learning

The future of data annotation looks promising and dynamic. It has evolved by leaps and bounds in supporting various technologies and enhancing their productive outcome. But with progress, there are always challenges that need to be addressed. Some of these challenges are discussed below.

  • In the process of training machine learning models, using over-sensitive and private data will always be a challenge. Thus, a code of conduct must be established to ensure that ethical standards are maintained during the whole annotation process.

  • While data annotation is a boon to modern technology, cost and time are factors that cannot be denied. Constant development needs to be made to ensure that the expenses and time taken in the overall process of data annotation are brought down.

  • As every company jumps on the bandwagon of implementing data annotation with their machine learning models, the future looks demanding. However, implementing data annotation onto these complex, data-hungry machine learning systems is still a hurdle limited due to today’s technology and infrastructure.

Conclusion

Data annotation has become a cornerstone in the development cycle of any AI or ML model. It plays a vital role in laying the foundation for training ML models on the data sets. It increases the efficacy and performance of these systems based on the use case scenario. Although riddled with challenges, it is set to become more sophisticated with constant strides being made in technology and innovation.

If you want to simplify your data annotation process you can rely on Digital Divide Data’s end-to-end high-quality human in-loop data annotation solutions.

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How Data Labeling and Annotation Are Fueling Autonomous Driving’s Global Movement

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By Abhilash Malluru
Feb 1, 2023

Autonomous driving is becoming more prevalent worldwide, garnering increased interest in optimizing technology through data labeling and annotation from investors and developers alike. With that growing interest comes an emerging need for experienced developers who can develop the tools and processes necessary for driver behavior monitoring, self-parking, motion planning, and traffic mapping.

Growing acceptance of autonomous driving has led to several approaches to advancing data labeling, annotation, and other machine learning processes. As these become standardized and more widely accepted in the industry, it’s crucial to understand the difficulties and obstacles which might arise in deploying them to any autonomous driving development platform.

Data Labeling and Annotation Strategies for Autonomous Vehicle Applications

The standard methods regarding the implementation of data labeling and annotation are as follows:

  • Bounding Boxes

  • Semantic segmentation

  • Polylines

  • Video Frame Annotation

  • Keypoints

  • Polygons

Bounding Boxes – Crucial for Robotaxis

2D bounding box annotation uses video or image annotation to identify and spatially place objects. It first maps items to develop datasets, then machine learning models use those datasets to localize objects. Depending on the method deployed, it can support various tags or text extraction for things like street signs.

This annotation technique is vital for an autonomous vehicle or robotaxi’s navigation. It relies heavily upon complex logic systems and requires additional inputs to differentiate for decision-making, meaning it requires significantly large quantities of data and human input for the vehicle to operate effectively and safely.

Partnering with firms that have extensive experience in this method like any reputable managed service model (MSM) can help you implement and deploy a technique like bounding boxes. A managed service provider (MSP) has both a data annotation workforce and expert consultants who can help guide your needs and pinpoint any difficulties or obstacles that might arise.

Semantic Segmentation to Identify Humans from Objects

Semantic segmentation is a technique that relies on a computer’s optical input to divide images into different components and label them by each pixel. This process is crucial to identify different types of objects so that a system can make a decision. For example, semantic segmentation helps a system identify people in a crosswalk. It may not know how many, but the point that people are crossing is enough to influence the decision-making process.

However, the most significant hurdle is that semantic segmentation is incredibly time-consuming. And this is where a dedicated team of SMEs from a third-party platform becomes invaluable. MSMs enable any organization seeking to implement semantic segmentation toolchains for this absolutely crucial process.

Since DDD’s workforce is trained in standard models and data annotation methods, they can help establish efficient and steady workflows while minimizing operational costs. These experts can handle such laborious tasks as semantic segmentation so you can place your focus elsewhere, ensuring you can complete other project needs before deliverables are due.

Polylines – Crucial for Overall Road System

This image annotation method enables the visualization and identification of lanes, including bicycle lanes, lane directions, diverging lanes, and oncoming traffic. Polylines require extensive data sets to be successfully labeled and deployed.

Polylines are crucial for autonomous driving as a means of lane detection. Accurate and consistent modeling allows for navigation and the avoidance of obstacles. Plus, models can be trained further so they better adhere to relevant traffic laws by detecting road markings and signs. MSMs can help offload some of the enormous overhead which goes into developing the toolchains necessary for polylines.

Video Frame Annotation – Necessary for Object Detection

Autonomous vehicles can use video annotation to identify, classify, and recognize objects and lanes. It can work in conjunction with techniques like semantic segmentation and polylines. Video frame annotation is necessary for more accurate object detection and works in conjunction with other annotation methods to provide accurate results.

Video annotation is time-consuming as it relies upon analyzing and data labeling thousands of video frames. Whether your platform is leveraging video and image annotation for autonomous vehicles or robotaxis, partnering with a third-party service can drastically reduce the time needed to implement this form of data annotation.

Keypoints – Giving Robotaxis Adaptability

Data drives both autonomous vehicles and the development of the systems which guide them. Keypoints provide a frame of reference for objects that might change shape by leveraging multiple consecutive points.

As with most of the techniques related to autonomous vehicles or robotaxis, this form of data annotation is a very consuming and costly process. While much of the modeling that goes into what serves a self-driving vehicle needs elements of artificial intelligence or machine learning, a human component must still input the points on the sets processed for data labeling.

Nothing encountered on the road will remain static, doubly so for those using autonomous vehicles in metropolitan areas. With this type of data labeling, leveraging an organization with actionable domain experience like MSMs can help develop streamlined methods and toolchains. Cost is dictated per hour or unit, and DDD’s staff brings much experience in standardized data labeling and annotation methods.

Polygons – Greater Precision for Visual Processing

Polygons operate like bounding boxes for visual data annotation. Irregular objects and accurate object detection greatly benefit from the implementation of polygonal data annotation. Polygonal annotation can have far greater precision than the bounding box method. When properly implemented, it helps detect things like obstructions, sidewalks, and the sides of the roads.

Polygonal annotation is a vital step in the autonomous driving model. Objects are very rarely uniform, and as such this method of annotation has a crucial function in making effective and safe models for the sake of detection and recognition. Its integration into your workflow comes from it being a time-consuming process. Compared to methods like bounding box annotation, it requires even more resources and time to correctly integrate. Engaging an MSM to help provide a platform can significantly reduce the time needed to implement this into your autonomous driving toolchain. Leveraging a third-party resource with actionable and proven experience can easily lead to greater precision in your detection model.

Get Started With a Data Labeling Service

The past few years have made it abundantly clear that autonomous driving is here to stay, and leveraging another organization’s expertise into your workflow frees up valuable resources and manpower which could be better spent on other aspects of project development. Plus, we can’t ignore the time it takes to invest and develop these annotation methods.

So if you’re developing the technologies and models that power autonomous driving, it’s worth considering outsourcing at least some of the workflows to a third-party vendor. MSMs like Digital Divide Data (DDD) provide a platform to help you and your staff overcome some of the pitfalls of developing systems for autonomous driving.

Data labeling and data annotation alike are diverse and complicated fields of work. You can discuss your project needs and requirements with the DDD staff today. By partnering with us, you gain access to a developed platform that delivers exceptional results for your digital labeling and annotation needs. Let’s discuss your project requirements today.

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