Lesson 1:Course Introduction
1.1 Introduction
Lesson 2:Decoding Artificial Intelligence
2.1 Decoding Artificial intelligence
2.2 Meaning Scope and Stages Of Artificial Intelligence
2.3 Three Stages of Artificial Intelligence
2.4 Applications of Artificial Intelligence
2.5 Image Recognition
2.6 Applications of Artificial Intelligence Examples
2.7 Effects of Artificial Intelligence on Society
2.8 Supervises Learning for Telemedicine
2.9 Solves Complex Social Problems
2.10 Benefits Multiple Industries
2.11 Key Takeaways
2.12 Knowledge Check
Lesson 3:Fundamentals of Machine Learning and Deep Learning
3.1 Fundamentals Of Machine Learning and Deep Learning
3.2 Meaning of Machine Learning
3.3 Relationship between Machine Learning and Statistical Analysis
3.4 Process of Machine Learning
3.5 Types of Machine Learning
3.6 Meaning of Unsupervised Learning
3.7 Meaning of Semi supervised Learning
3.8 Algorithms of Machine Learning
3.9 Regression
3.10 Naive Bayes
3.11 Naive Bayes Classification
3.12 Machine Learning Algorithms
3.13 Deep Learning
3.14 Artificial Neural Network Definition
3.15 Definition of Perceptron
3.16 Online and Batch Learning
3.17 Key Takeaways
3.18 Knowledge Check
Lesson 4:Machine Learning Workflow
4.1 Learning Objective
4.2 Machine Learning Workflow
4.3 Get more data
4.4 Ask a Sharp Question
4.5 Add Data to the Table
4.6 Check for Quality
4.7 Transform Features
4.8 Answer the Questons
4.9 Use the Answer
4.10 Key Takeaways
4.11 Knowledge Check
Lesson 5:Performance Metrics
5.1 Performance Metrics
5.2 Need For Performance Metrics
5.3 Key Methods Of Performance Metrics
5.4 Confusion Matrix Example
5.5 Terms Of Confusion Matrix
5.6 Minimize False Cases
5.7 Minimize False Positive Example
5.8 Accuracy
5.9 Precision
5.10 Recall Or Sensitivity
5.11 Specificity
5.12 F1 Score
5.13 Key Takeaways
5.14 Knowledge Check
Artificial Intelligence (AI) revolutionizes how machines mimic human intelligence, transforming industries and daily life. By leveraging algorithms, machine learning, and neural networks, AI processes vast data to recognize patterns, make predictions, and automate tasks. From virtual assistants like Siri to advanced applications in healthcare diagnosing diseases, its potential is immense. Natural language processing enables chatbots, while computer vision powers facial recognition. Ethical considerations, like bias and privacy, remain critical as AI evolves. With tools like TensorFlow and Python driving development, AI continues to enhance efficiency, creativity, and decision-making, shaping a future where technology and humanity increasingly intertwine.
No requirements.
AI revolves around creating systems that simulate human intelligence, including reasoning, learning, problem-solving, and perception. Core principles include machine learning (training models on data), neural networks (mimicking brain structures), and algorithmic decision-making. Key concepts involve supervised/unsupervised learning, reinforcement learning, and the ability to generalize from data. AI systems rely on iterative feedback loops to improve accuracy, emphasizing scalability, adaptability, and ethical design. Foundational goals include automating complex tasks, enhancing predictive capabilities, and enabling human-AI collaboration across industries like healthcare, finance, and robotics.
Machine Learning (ML) trains algorithms to identify patterns in data (e.g., regression, classification). Deep Learning (DL), a subset of ML, uses neural networks (CNNs, RNNs) for tasks like image recognition. Natural Language Processing (NLP) enables machines to understand text/speech (e.g., chatbots, sentiment analysis). Computer Vision (CV) processes visual data (object detection, facial recognition). Together, these domains power applications from autonomous vehicles to medical diagnostics, leveraging vast datasets and computational power to solve real-world problems.
Common techniques include supervised learning (linear regression, SVM), unsupervised learning (k-means clustering, PCA), and reinforcement learning (Q-learning). DL algorithms like CNNs excel in image analysis, while transformers (e.g., BERT) dominate NLP. Techniques such as gradient descent optimize models, while tools like TensorFlow/PyTorch streamline implementation. Feature engineering, hyperparameter tuning, and cross-validation ensure robustness. Ethical AI practices, like bias mitigation, are increasingly integrated into algorithm design.
AI raises ethical challenges: bias in training data, privacy breaches, job displacement, and autonomous weapons. Mitigating risks requires transparent algorithms, diverse datasets, and regulations (e.g., GDPR). Societal impacts include healthcare advancements (early disease detection) and environmental gains (climate modeling), but also misinformation risks (deepfakes). Ethical AI frameworks prioritize fairness, accountability, and human oversight to ensure technology aligns with societal values.
AI evolves through breakthroughs like generative models (GPT-4, DALL-E) and quantum computing integration. Trends include edge AI (on-device processing) and federated learning (privacy-preserving training). Staying updated demands continuous learning via courses, research papers, and toolkits (Hugging Face). Interdisciplinary collaboration—merging AI with fields like neuroscience—drives innovation, while open-source communities accelerate development.