ai_real_time_learner
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| ai_real_time_learner [2025/05/29 16:56] – [Purpose and Goals] eagleeyenebula | ai_real_time_learner [2025/05/29 17:01] (current) – [Advanced Features] eagleeyenebula | ||
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| 1. Enabling dynamic learning in production environments. | 1. Enabling dynamic learning in production environments. | ||
| + | |||
| 2. Reducing time and resource consumption compared to traditional full retraining approaches. | 2. Reducing time and resource consumption compared to traditional full retraining approaches. | ||
| + | |||
| 3. Enhancing the responsiveness of real-time AI systems, such as recommendations and predictions. | 3. Enhancing the responsiveness of real-time AI systems, such as recommendations and predictions. | ||
| Line 56: | Line 58: | ||
| * **SGDClassifier**: | * **SGDClassifier**: | ||
| - | The `SGDClassifier` model serves as the foundational machine learning algorithm, enabling the system to handle large-scale datasets efficiently and adapt incrementally with in-memory optimization techniques. | + | |
| * **Incremental Updates**: | * **Incremental Updates**: | ||
| - | The **`partial_fit()`** function is the core utility of the **AI Real-Time Learner**, allowing the model to be updated with small data batches in real-time. | + | |
| ===== Example Usages ===== | ===== Example Usages ===== | ||
| Line 68: | Line 70: | ||
| This example demonstrates the deployment of the **RealTimeLearner** system for basic real-time updates with a small dataset. | This example demonstrates the deployment of the **RealTimeLearner** system for basic real-time updates with a small dataset. | ||
| - | + | < | |
| - | ```python | + | python |
| import numpy as np | import numpy as np | ||
| from sklearn.linear_model import SGDClassifier | from sklearn.linear_model import SGDClassifier | ||
| Line 83: | Line 85: | ||
| """ | """ | ||
| self.model.partial_fit(X, | self.model.partial_fit(X, | ||
| - | + | </ | |
| - | # Example data stream | + | **Example data stream** |
| + | < | ||
| X_stream = [[1, 2], [2, 3], [3, 4]] | X_stream = [[1, 2], [2, 3], [3, 4]] | ||
| y_stream = [0, 1, 1] | y_stream = [0, 1, 1] | ||
| - | + | </ | |
| - | # Real-time updates | + | **Real-time updates** |
| + | < | ||
| learner = RealTimeLearner() | learner = RealTimeLearner() | ||
| for X_batch, y_batch in zip(X_stream, | for X_batch, y_batch in zip(X_stream, | ||
| Line 94: | Line 98: | ||
| print(" | print(" | ||
| - | ``` | + | </ |
| ==== Example 2: Real-Time Learning in Predictive Systems ==== | ==== Example 2: Real-Time Learning in Predictive Systems ==== | ||
| The **Real-Time Learner** can power predictive systems where frequent updates are required. Below is an example for stock price prediction: | The **Real-Time Learner** can power predictive systems where frequent updates are required. Below is an example for stock price prediction: | ||
| - | + | < | |
| - | ```python | + | python |
| import numpy as np | import numpy as np | ||
| Line 116: | Line 120: | ||
| return self.model.predict(X) | return self.model.predict(X) | ||
| - | + | </ | |
| - | # Initialize the learner | + | **Initialize the learner** |
| + | < | ||
| learner = StockPredictionLearner() | learner = StockPredictionLearner() | ||
| initial_data = np.array([[100, | initial_data = np.array([[100, | ||
| initial_labels = [0, 1, 1] | initial_labels = [0, 1, 1] | ||
| - | + | </ | |
| - | # Fit initial model with stock trends | + | **Fit initial model with stock trends** |
| + | < | ||
| learner.update_model(initial_data, | learner.update_model(initial_data, | ||
| - | + | </ | |
| - | # Simulate new stock price streaming data | + | **Simulate new stock price streaming data** |
| + | < | ||
| stream_data = np.array([[103, | stream_data = np.array([[103, | ||
| predictions = learner.predict(stream_data) | predictions = learner.predict(stream_data) | ||
| print(f" | print(f" | ||
| - | ``` | + | </ |
| ==== Example 3: Real-Time Fraud Detection ==== | ==== Example 3: Real-Time Fraud Detection ==== | ||
| Design an AI fraud detection system where updates are required to account for evolving patterns in fraudulent activities. | Design an AI fraud detection system where updates are required to account for evolving patterns in fraudulent activities. | ||
| - | + | < | |
| - | ```python | + | python |
| class FraudDetectionLearner(RealTimeLearner): | class FraudDetectionLearner(RealTimeLearner): | ||
| """ | """ | ||
| Line 152: | Line 159: | ||
| predictions.append(self.model.predict([X])[0]) | predictions.append(self.model.predict([X])[0]) | ||
| return predictions | return predictions | ||
| + | </ | ||
| - | + | **Example transactions (X) and labels (y).** | |
| - | # Example transactions (X) and labels (y). | + | < |
| transaction_data = [[5000, 1], [10000, 1], [7500, 0]] | transaction_data = [[5000, 1], [10000, 1], [7500, 0]] | ||
| class_labels = [1, 1, 0] # Fraudulent (1) or Not (0). | class_labels = [1, 1, 0] # Fraudulent (1) or Not (0). | ||
| Line 161: | Line 169: | ||
| fraud_predictions = fraud_detector.handle_streaming_data(transaction_data, | fraud_predictions = fraud_detector.handle_streaming_data(transaction_data, | ||
| print(f" | print(f" | ||
| - | ``` | + | </ |
| ===== Advanced Features ===== | ===== Advanced Features ===== | ||
| Line 167: | Line 175: | ||
| The **Real-Time Learner** system enables a wide array of advanced features for various machine learning applications: | The **Real-Time Learner** system enables a wide array of advanced features for various machine learning applications: | ||
| - | | + | 1. **Dynamic Model Evolution**: |
| - | | + | * Update models in response to system feedback in real-time without halting operations. |
| - | + | ||
| - | 2. **Large-Scale Data Handling**: | + | |
| - | | + | |
| - | 3. **Online Machine Learning**: | + | 2. **Large-Scale Data Handling**: |
| - | Train models in environments where data arrives continuously or evolves over time, such as IoT, financial services, or supply chain systems. | + | * Handle vast data streams by splitting it into smaller batches processed incrementally. |
| - | 4. **Custom Streaming Pipelines**: | + | 3. **Online Machine Learning**: |
| - | Create | + | * Train models |
| + | 4. **Custom Streaming Pipelines**: | ||
| + | * Create models tailored to specific streaming applications, | ||
| ===== Use Cases ===== | ===== Use Cases ===== | ||
ai_real_time_learner.1748537764.txt.gz · Last modified: 2025/05/29 16:56 by eagleeyenebula
