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| retry_mechanism [2025/05/30 13:39] – [Retry Mechanism] eagleeyenebula | retry_mechanism [2025/06/06 14:48] (current) – [Retry Mechanism] eagleeyenebula |
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| **[[https://autobotsolutions.com/god/templates/index.1.html|More Developers Docs]]**: | **[[https://autobotsolutions.com/god/templates/index.1.html|More Developers Docs]]**: |
| The **AI Retry Mechanism** provides a robust and reusable solution for handling failures in API requests, database connections, or any function prone to transient issues. By automatically retrying operations based on configurable parameters such as retry count, delay intervals, and backoff strategies, it ensures system reliability and helps maintain smooth execution of workflows. This automated approach minimizes disruptions in pipelines, allowing temporary outages or latency issues to be handled gracefully without requiring manual intervention. | The **AI Retry Mechanism** provides a robust and reusable solution for handling failures in API requests, database connections, or any function prone to transient issues. By automatically retrying operations based on configurable parameters such as retry count, delay intervals, and backoff strategies, it ensures system reliability and helps maintain smooth execution of workflows. This automated approach minimizes disruptions in pipelines, allowing temporary outages or latency issues to be handled gracefully without requiring manual intervention. |
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| Designed for flexibility and integration, the Retry Mechanism can be easily wrapped around critical operations across a variety of modules, including data fetching, model serving, and external service calls. It supports custom error handling logic, exponential backoff, and logging for each retry attempt, providing visibility into failure patterns and aiding in debugging and system resilience planning. With its modular structure, it can be adapted for both synchronous and asynchronous operations, making it an essential component for building fault-tolerant, production-grade systems that must operate reliably in real-world environments. | Designed for flexibility and integration, the Retry Mechanism can be easily wrapped around critical operations across a variety of modules, including data fetching, model serving, and external service calls. It supports custom error handling logic, exponential backoff, and logging for each retry attempt, providing visibility into failure patterns and aiding in debugging and system resilience planning. With its modular structure, it can be adapted for both synchronous and asynchronous operations, making it an essential component for building fault-tolerant, production-grade systems that must operate reliably in real-world environments. |
| ===== Key Features ===== | ===== Key Features ===== |
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| * **Retries with Delays**: | **Retries with Delays**: |
| Offers configurable `retries` and `delay` parameters to control retry behavior. | * Offers configurable **retries** and **delay** parameters to control retry behavior. |
| * **Function Agnostic**: | **Function Agnostic**: |
| Can wrap any function in the pipeline, making it highly reusable. | * Can wrap any function in the pipeline, making it highly reusable. |
| * **Detailed Logging**: | **Detailed Logging**: |
| Logs warnings for each failure attempt to help identify root causes. | * Logs warnings for each failure attempt to help identify root causes. |
| * **Graceful Failures**: | **Graceful Failures**: |
| Ensures exceptions are raised after all retry attempts fail. | * Ensures exceptions are raised after all retry attempts fail. |
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| ===== Class and Method Design ===== | ===== Class and Method Design ===== |
| ==== Retry Decorator ==== | ==== Retry Decorator ==== |
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| The `retry` method is the core of the retry mechanism. It accepts the following parameters: | The **retry** method is the core of the retry mechanism. It accepts the following parameters: |
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| * `retries` (int): Number of retry attempts before raising an exception. | * **retries** (int): Number of retry attempts before raising an exception. |
| * `delay` (int): Delay (in seconds) between each retry attempt. | * **delay** (int): Delay (in seconds) between each retry attempt. |
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| <code> | <code> |
| ```python | python |
| @staticmethod | @staticmethod |
| def retry(retries=3, delay=5): | def retry(retries=3, delay=5): |
| return wrapped | return wrapped |
| return wrapper | return wrapper |
| ``` | |
| </code> | </code> |
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| ===== Basic Example ===== | ===== Basic Example ===== |
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| To use the **RetryMechanism**, simply annotate any function prone to transient failures with the `@RetryMechanism.retry` decorator. | To use the **RetryMechanism**, simply annotate any function prone to transient failures with the **@RetryMechanism.retry** decorator. |
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| ==== Example 1: API Data Fetching ==== | ==== Example 1: API Data Fetching ==== |
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| <code> | <code> |
| ```python | python |
| import requests | import requests |
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| except Exception as e: | except Exception as e: |
| print(f"Data fetching failed: {e}") | print(f"Data fetching failed: {e}") |
| ``` | |
| </code> | </code> |
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| **Output** (in case of failures): | **Output** (in case of failures): |
| <code> | <code> |
| ``` | |
| WARNING:root:Attempt 1 failed: ConnectionTimeout WARNING:root:Attempt 2 failed: ConnectionResetError WARNING:root:Attempt 3 failed: ConnectionTimeout Exception: All retry attempts failed. | WARNING:root:Attempt 1 failed: ConnectionTimeout WARNING:root:Attempt 2 failed: ConnectionResetError WARNING:root:Attempt 3 failed: ConnectionTimeout Exception: All retry attempts failed. |
| ``` | |
| </code> | </code> |
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| <code> | <code> |
| ```python | python |
| import sqlite3 | import sqlite3 |
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| except Exception as e: | except Exception as e: |
| print(f"Database connection failed: {e}") | print(f"Database connection failed: {e}") |
| ``` | |
| </code> | </code> |
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| <code> | <code> |
| ```python | python |
| @RetryMechanism.retry(retries=4, delay=3) | @RetryMechanism.retry(retries=4, delay=3) |
| def read_file(file_path): | def read_file(file_path): |
| except Exception as e: | except Exception as e: |
| print(f"File reading failed: {e}") | print(f"File reading failed: {e}") |
| ``` | |
| </code> | </code> |
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| <code> | <code> |
| ```python | python |
| def dynamic_operation(): | def dynamic_operation(): |
| """ | """ |
| except Exception as e: | except Exception as e: |
| print(f"All retries failed: {e}") | print(f"All retries failed: {e}") |
| ``` | |
| </code> | </code> |
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| 1. **Dynamic Retry Configuration**: | 1. **Dynamic Retry Configuration**: |
| - Add logic to dynamically adjust retries or delays based on error types or counts. | * Add logic to dynamically adjust retries or delays based on error types or counts. |
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| 2. **Exponential Backoff**: | 2. **Exponential Backoff**: |
| - Implement an adaptive delay mechanism for retries by doubling delay times with each failed attempt. | * Implement an adaptive delay mechanism for retries by doubling delay times with each failed attempt. |
| <code> | <code> |
| ```python | python |
| delay = delay * 2 | delay = delay * 2 |
| ``` | |
| </code> | </code> |
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| 3. **Integration with Alert Systems**: | 3. **Integration with Alert Systems**: |
| - Use retry failure events to trigger alerts (e.g., email, Slack, or PagerDuty notifications). | * Use retry failure events to trigger alerts (e.g., email, **Slack**, or **PagerDuty** notifications). |
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| ===== Conclusion ===== | ===== Conclusion ===== |
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| The **Retry Mechanism** ensures fault tolerance for transient errors in pipelines and operations such as API calls, database connections, or file operations. Its decorator-based syntax and configurable parameters make it an indispensable tool in modern workflows. Adapt and extend it for your specific needs to achieve maximum reliability. | The **AI Retry Mechanism** ensures fault tolerance for transient errors in pipelines and operations such as API calls, database connections, or file operations. By automatically retrying failed tasks using configurable parameters such as maximum attempts, delay intervals, and backoff strategies it prevents temporary issues from escalating into critical failures. This capability is especially valuable in distributed systems or environments that depend on external services, where intermittent connectivity or resource contention can be common. The system enhances operational stability by providing developers with a powerful safeguard against unpredictable runtime disruptions. |
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| | Its clean, decorator-based syntax allows seamless integration into existing codebases, promoting readability and reducing the complexity of error-handling logic. Developers can tailor the mechanism to their specific context by defining custom retry conditions, logging behavior, and exception handling strategies. It supports both synchronous and asynchronous workflows, ensuring compatibility across diverse use cases. Whether used in data pipelines, machine learning orchestration, or real-time applications, the Retry Mechanism serves as a foundational component for building robust, resilient, and self-healing systems. Adapt and extend it to match your environment, and unlock higher levels of reliability and automation in your operations. |
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