
Create a Roboflow account and project workspace, prepare and annotate an MRI brain tumor dataset, train and validate a YOLOv8 model, and run the project in PyCharm.
Create a Roboflow account and start a new public project. Choose object detection, classification, or instance segmentation, name Brain Tumor Detection in MRI, and apply CC BY 4.0 license.
Create a brain tumor detection dataset for YOLO v8 using Roboflow, Kaggle, and image downloads. Upload, annotate, and format data from files, folders, and online sources.
Learn to annotate MRI images for brain tumor detection in Roboflow using bounding boxes, polygons, and smart polygons, with brain tumor and no brain tumor classes, and set train/valid/test splits.
Train your dataset with the Yolo v8 model on Roboflow by creating a version, applying pre-processing and augmentation, and exporting the data for training.
Validate the YOLO v8 model on Roboflow for brain tumor detection in MRI images, reviewing precision, recall, and mean average precision.
Learn how to run a brain tumor detection project in PyCharm using hosted API, on-device, and cloud options, deploying a YOLOv8 model via Roboflow with OpenCV and count predictions.
Create a Yolo v7 emotion detection project using Roboflow and Google Colab, covering account setup, dataset creation, annotation, training, validation, and running the project in PyCharm.
Create a Roboflow account and set up an emotion detection project workspace, selecting object detection, classification, or instance segmentation, then publish a public project under CC BY 4.0.
Create a dataset for emotion detection using Yolov7 by sourcing images from Roboflow, Kaggle, Google images, and by selecting files, folders, or YouTube videos.
Annotate images in Roboflow with bounding boxes and polygons, using AI tools to label emotions like angry, sad, happy, and fearful, and set train, validation, and test splits for Yolov7.
Train Yolov7 model on an emotion detection dataset by creating a version, pre-processing and augmenting images and labels, downloading the dataset, and choosing train with Roboflow or custom train.
Validate a Yolov7 trained model on Roboflow by inspecting mAP, precision, and recall graphs, then drag and drop images or videos to test real-time emotion detection with a webcam.
Learn to run a PyCharm ide project with Roboflow hosted api options (on device, native sdk, cloud, utilities); import images and mp4s; generate annotation, blur, and count predictions using Yolov7.
Learn to build real-time face recognition with yolov7 on Roboflow by creating accounts and datasets, annotating images, training, validating, and running projects in PyCharm, with Roboflow and Google Colab guidance.
Create a Roboflow account and sign in with Google to set up a real-time face detection project, using YOLO v7. Choose object detection, classification, or instance segmentation.
Create a dataset for real-time facial recognition with yolo v7 by importing videos and images into Roboflow, generating frames, and preparing images for annotation.
Learn to annotate images on the Roboflow platform using bounding boxes, polygons, and smart polygon tools, assign class names, and manage train-valid-test splits for real-time face recognition projects.
Train your dataset with the YOLOv7 model on Roboflow by creating a new version, exporting as Yolov7 PyTorch, and selecting a fast training option, then validate in the next class.
Validate a Yolov7 model in Roboflow by inspecting mean average precision, precision, and recall, using drag-and-drop images or video to verify real-time face recognition with adjustable thresholds.
Navigate project execution in the PyCharm IDE using Roboflow, Python, and Yolov7 to run, predict, and visualize real-time face recognition with OpenCV and cloud options.
Introduce Roboflow and its features for custom object detection with YOLO v7, covering datasets, annotation, and cloud training without GPUs, plus setting up accounts and project workspaces.
Learn to create a Roboflow account, set up a project workspace, and choose a plan to build object detection, classification, and instance segmentation using Yolo v7 for helmet detection.
Create a helmet detection dataset using Google images and Kaggle datasets, then import photos into Roboflow. Use the Image Assistant extension to download images and target at least 1000 images.
Annotate helmet images using bounding box, smart polygon, and polygon tools on the Roboflow platform, then set 70/20/10 train/valid/test splits and prepare dataset for Yolov7 training.
Learn how to train a dataset with the Yolov7 model on Roboflow, including preparing, annotating, exporting to the Yolov7 PyTorch format, and training in the cloud without a GPU.
Validate the trained Yolov7 model on Roboflow by examining mean average precision, precision and recall, and loss graphs up to epoch 300, with drag-and-drop validation achieving 94% helmet detection.
Execute your helmet-detection project in the PyCharm IDE using Roboflow, install Roboflow, run Python code with the hosted API and Yolov7, and validate results from live predictions.
Explore google colab for free gpu and tpu training, create a project, set runtime to python 3 with gpu, connect a t4 gpu, and begin yolov7 helmet detection.
Import Yolov7 into Google Colab by cloning from GitHub, installing requirements, importing a Roboflow dataset for helmet detection, and retrieving the Yolov7 PyTorch file to prepare training data.
Train the Yolov7 model in Google Colab by running train.py with batch size and epoch settings, using data.yaml and weights.
Learn how to validate a trained PyTorch helmet-detection model in Google Colab using Yolov7, detect.py, and the best.pt weights, setting a confidence score and looping through images to display results.
Demonstrate downloading the trained PyTorch model from Colab, fetching Yolov7, extracting and organizing files, and preparing a helmet-detection project for deployment in PyCharm with Roboflow.
Hands-on Deep Learning Project Series | Build 5+ Real Deep Learning Projects from Scratch | Complete Deep Learning Project Course
Course Description:
Welcome to the Deep Learning Project course – your ultimate hands-on guide to mastering real-world AI and machine learning through 5+ complete Deep Learning Projects.
In this course, you will work on multiple Deep Learning Projects covering diverse applications such as image classification, object detection, face recognition, emotion detection, and more. Whether you're a beginner or an intermediate learner, this course is designed to help you practically understand how to implement each Deep Learning Project from scratch.
Every Deep Learning Project is built step-by-step using modern libraries like TensorFlow, Keras, and PyTorch. You will learn how to preprocess data, build neural networks, train models, evaluate results, and deploy each Deep Learning Project in a real-world context.
What You Will Learn:
Introduction to Facial Recognition and Emotion Detection:
Understand the significance of facial recognition and emotion detection in computer vision applications and their real-world use cases.
Setting Up the Project Environment:
Learn how to set up the project environment, including the installation of necessary tools and libraries for implementing YOLOv7 for facial recognition and emotion detection.
Data Collection and Preprocessing:
Explore the process of collecting and preprocessing datasets for both facial recognition and emotion detection, ensuring the data is optimized for training a YOLOv7 model.
Annotation of Facial Images and Emotion Labels:
Dive into the annotation process, marking facial features on images for recognition and labeling emotions for detection. Train YOLOv7 models for accurate and robust performance.
Integration with Roboflow:
Understand how to integrate Roboflow into the project workflow, leveraging its features for efficient dataset management, augmentation, and optimization for both facial recognition and emotion detection.
Training YOLOv7 Models:
Explore the end-to-end training workflow of YOLOv7 using the annotated and preprocessed datasets, adjusting parameters, and monitoring model performance for both applications.
Model Evaluation and Fine-Tuning:
Learn techniques for evaluating the trained models, fine-tuning parameters for optimal performance, and ensuring robust facial recognition and emotion detection.
Deployment of the Models:
Understand how to deploy the trained YOLOv7 models for real-world applications, making them ready for integration into diverse scenarios such as security systems or human-computer interaction.
Ethical Considerations in Computer Vision:
Engage in discussions about ethical considerations in computer vision, focusing on privacy, consent, and responsible use of biometric data in facial recognition and emotion detection.
By the end of this course, you’ll have a strong portfolio of Deep Learning Projects that showcase your AI and ML skills to employers or clients.
Enroll now & build real-world AI applications with Deep Learning!