6 min readExplore how computer vision AI enhances underwater object detection & classification
Saran
Saran
Explore How Computer Vision AI Enhances Underwater Object Detection Classification 2

Underwater Detection can play a significant role in navy operations, from scientific research to infrastructure maintenance. According to the latest report, more than 14 million tons of plastic enter the ocean annually, affecting marine biodiversity. Conventional underwater monitoring methods mainly rely on sonar and remote-operated vehicles, which can be costly and time-consuming.  

By harnessing tasks such as real-time object detection and tracking, YOLO11 can bring accuracy and speed to underwater applications. In this blog post, we are going to explore the challenges of traditional underwater detection and how computer vision models such as YOLO11 are bringing innovation to marine environments. 

What are the challenges in underwater detection?

What Are The Challenges In Underwater Detection  1

Regardless of technological advancements, underwater monitoring is still facing challenges. 

Restricted visibility 

Suspended particles and murky waters lower the visibility making it challenging to detect and identify objects excellently. 

High operational costs

The process of conducting underwater surveys and inspections needs expensive tools, extensive rational support and trained professionals.

Environmental conditions

The unpredictable water conditions in addition to high pressure and strong currents make the manual inspection process more difficult.

Slow data processing

Several camera-based methods and traditional sonar require post-processing resulting in delays in decision-making.     

After going through the above challenges, it is worthwhile to embrace automation powered by AI that can help improve underwater monitoring, improve data accuracy and streamline operations. Now the question arises of how computer vision AI can enhance marine monitoring. Several computer vision models such as YOLO11 can bring precision and adaptability to marine monitoring applications. 

What are the key aspects of AI-based underwater object detection?

Herein take a look at the major aspects of AI-based Computer vision for underwater detection. 

Deep learning models

The diverse set of deep learning models including convolutional neural networks such as YOLO and SSD are generally used for underwater object detection as they can effectively gather complex features from image/video data and detect objects with higher accuracy. 

Image preprocessing

As a result of the innovative features of underwater images, preprocessing strategies such as colour correction and noise cancellation are vital to improving premium image quality before sending it to the AI model.

Dataset development  

The process of preparing underwater object detection models needs large and diverse datasets that can collect various underwater environments, object types and lighting conditions. 

How does AI enhance underwater object detection?

How Does AI Enhance Underwater Object Detection  1

Vision AI’s ability to detect and classify objects in real time makes it a relevant tool for tracking marine life, detecting underwater waste and ensuring human safety in aquatic environments.  

Real-time detection   

The advanced AI models can process underwater video streams in real-time enabling live monitoring and tracking of objects. YOLO11 is capable of processing underwater images and videos at high speed. Therefore, it instantly identifies waste, marine species and human activity beneath the surface. 

Species identification

AI models can be trained on different marine species where it can accurately classify fishes and marine biodiversity like corals and aquatic beings. 

High precision

Models can be specially trained to detect and classify fish species count, and marine life populations and detect waste deposits with accuracy.

Habitat monitoring

Underwater images and video captured through cameras that are integrated with AI-powered underwater monitoring systems can seamlessly monitor the changes and health of marine ecosystems. 

Custom adaptability

The object detection YOLO can be trained on certain marine datasets enabling it to detect various species of fish with real-time monitoring of changes in aquatic ecosystems.

With the integration of YOLO11 into marine monitoring workflows, aquaculture industries and environmental agencies can enhance conservation efforts, improve safety and optimize marine resource management. 

Real-world applications of AI video analytics software in underwater environments

As we have discussed how AI video analytics models such as YOLO11 can improve marine monitoring, it’s time to explore the top practical applications across industries. Using object detection, classification and tracking, YOLO11 supports marine research and promotes underwater inspections.  

Marine life monitoring

For conservation and ecosystem health evaluation, real-time monitoring of marine biodiversity is crucial for conservation. AI Video analytics software helps in marine life studies by detecting fish species in real time. It can analyze underwater footage and detect diverse fish species in the zone. From counting fish populations to providing valuable insights into overfishing risks, AI surveillance systems can help in developing better conservation strategies. It can make informed decisions regarding harvesting and other farming techniques. 

Submerged infrastructure inspection

The conventional strategies of inspections require manually controlling the monitoring and relying on remotely operated vehicles which can be expensive in the long run. With the implementation of AI-driven cameras underwater drones can easily identify corrosion, cracks and any unusual anomalies. Leveraging computer vision algorithms for underwater detection, maintenance personnel can obtain accurate inspection results.

Simplifying underwater exploration

When it comes to underwater surfing or exploration, safety is the primordial concern. AI video analytics software helps in tracking divers at the time of deep-sea or under-ocean operations. Leveraging AI-based underwater monitoring systems, explorers and rescue teams can identify divers in real-time underwater. YOLO11 can be integrated underwater as a part of safety systems to improve safety operations and emergency responses. 

Waste detection

Computer vision models offer an effective method for identifying and classifying underwater waste allowing faster mitigation efforts. By integrating underwater cameras in drones with computer vision in object detection, environmental safety agencies can detect seabeds in addition to water columns for recognizing waste materials underwater. These AI-powered systems ensure that waste is managed underwater alongside cleanup efforts.

Top advantages that make computer vision beneficial for advanced underwater detection

Top Advantages That Make Computer Vision Beneficial For Advanced Underwater Detection 1 3
Automation of tasks: Embracing computer vision for underwater detection can automate several operations.
Increased efficiency: It promotes automation of underwater monitoring and inspections effectively reducing reliance on manual labour and streamlining operations. 
Cost-effectiveness: AI-powered inspections reduce comprehensive expenses by automating several tasks.  

Final thoughts

Computer vision in object detection is constantly revolutionizing underwater object detection by administering an effective tool for conservation, marine research and many more. It harnesses tasks such as real-time object detection and tracking bringing in more speed and accuracy to underwater applications. With the automation of tasks like marine life tracking, pollution detection and infrastructure inspection, YOLO11 allows smarter workflows and improves decision-making. With Nextbrain, explore how AI video analytics software can contribute to more effective marine solutions. 

Get in touch with our experts to know more about computer vision.

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