Detect objects in images
Identify objects in images and return details
Detect and segment objects in images
Draw a box to detect objects
Detect objects in anime images
Detect objects in images and videos
Identify objects in your images using labels
Detect objects in images
Identify objects in images and generate detailed data
State-of-the-art Object Detection YOLOV9 Demo
Identify objects in images with Transformers.js
Upload an image to detect and classify objects
Detect objects in images using 🤗 Transformers.js
CBNetV2 is an advanced AI model designed for object detection tasks. It is built to detect objects within images with high accuracy and efficiency. As an improved version of its predecessor, CBNetV2 incorporates state-of-the-art techniques to enhance performance and reliability in various real-world applications.
• High Detection Accuracy: CBNetV2 delivers excellent detection accuracy across a wide range of object categories.
• Fast Inference Speed: The model is optimized for fast inference, making it suitable for real-time applications.
• Multi-Platform Support: It can be deployed on multiple platforms, including desktops, mobile devices, and edge devices.
• Pre-Trained Models: CBNetV2 provides pre-trained models for common object detection datasets, enabling quick deployment.
• Open-Source Accessibility: The model is open-source, allowing developers to customize and fine-tune it for specific use cases.
What platforms does CBNetV2 support?
CBNetV2 supports Windows, Linux, and macOS for desktop deployments. It also works on mobile platforms and edge devices with supported frameworks like TensorFlow Lite.
Can I use CBNetV2 for real-time object detection?
Yes, CBNetV2 is optimized for fast inference speeds, making it suitable for real-time object detection applications such as surveillance, autonomous vehicles, and robotics.
How do I retrain CBNetV2 for my custom dataset?
To retrain CBNetV2, prepare your custom dataset, convert it into a compatible format, and use the provided training scripts. Fine-tuning requires adjusting the model architecture and training parameters as needed.