Field | Description | Key Techniques |
---|---|---|
AI | Simulating human intelligence in machines | Rule-based systems, expert systems |
ML | Learning from data without explicit programming | Regression, classification, clustering |
DL | Using neural networks for complex data analysis | Convolutional Neural Networks (CNNs), Recurrent Neural Networks (RNNs) |
Field | Description | Key Techniques |
---|---|---|
AI | Simulating human intelligence in machines | Rule-based systems, expert systems |
ML | Learning from data without explicit programming | Regression, classification, clustering |
DL | Using neural networks for complex data analysis | Convolutional Neural Networks (CNNs), Recurrent Neural Networks (RNNs) |
Algorithm | Type | Use Case | Pros | Cons |
---|---|---|---|---|
Linear Regression | Supervised | Predicting housing prices | Simple, interpretable | Assumes linear relationship |
Logistic Regression | Supervised | Spam detection | Easy to implement, efficient | Limited to binary classification |
Decision Trees | Supervised | Credit risk assessment | Easy to understand, handles non-linear data | Prone to overfitting |
SVM | Supervised | Image classification | Effective in high dimensions | Computationally intensive |
K-Means | Unsupervised | Customer segmentation | Scalable, versatile | Sensitive to initial centroids |
Algorithm | Type | Use Case | Pros | Cons |
---|---|---|---|---|
Linear Regression | Supervised | Predicting housing prices | Simple, interpretable | Assumes linear relationship |
Logistic Regression | Supervised | Spam detection | Easy to implement, efficient | Limited to binary classification |
Decision Trees | Supervised | Credit risk assessment | Easy to understand, handles non-linear data | Prone to overfitting |
SVM | Supervised | Image classification | Effective in high dimensions | Computationally intensive |
K-Means | Unsupervised | Customer segmentation | Scalable, versatile | Sensitive to initial centroids |
Architecture | Application | Key Features |
---|---|---|
CNN | Image classification, object detection | Convolutional layers, pooling layers |
RNN | Speech recognition, language modeling | Recurrent connections, memory cells |
Transformer | Machine translation, text summarization | Attention mechanism, self-attention |
Architecture | Application | Key Features |
---|---|---|
CNN | Image classification, object detection | Convolutional layers, pooling layers |
RNN | Speech recognition, language modeling | Recurrent connections, memory cells |
Transformer | Machine translation, text summarization | Attention mechanism, self-attention |
Industry | Application | Benefits |
---|---|---|
Healthcare | AI-powered diagnostics | Improved accuracy, faster diagnosis |
Finance | Algorithmic trading | Increased efficiency, reduced risk |
Manufacturing | Predictive maintenance | Reduced downtime, cost savings |
Retail | Personalized recommendations | Increased sales, customer satisfaction |
Industry | Application | Benefits |
---|---|---|
Healthcare | AI-powered diagnostics | Improved accuracy, faster diagnosis |
Finance | Algorithmic trading | Increased efficiency, reduced risk |
Manufacturing | Predictive maintenance | Reduced downtime, cost savings |
Retail | Personalized recommendations | Increased sales, customer satisfaction |
Trend | Description | Impact |
---|---|---|
Explainable AI | Making AI decisions transparent | Increased trust and accountability |
Federated Learning | Training on decentralized data | Enhanced privacy and collaboration |
AI Hardware | Specialized AI chips | Faster training and more powerful models |
Ethical AI | Responsible AI development | Fairness and bias mitigation |
Trend | Description | Impact |
---|---|---|
Explainable AI | Making AI decisions transparent | Increased trust and accountability |
Federated Learning | Training on decentralized data | Enhanced privacy and collaboration |
AI Hardware | Specialized AI chips | Faster training and more powerful models |
Ethical AI | Responsible AI development | Fairness and bias mitigation |