AI and Machine Learning for Mechanical and Electrical Engineering ...
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First edition
About this book
Practical and informative, AI and Machine Learning for Mechanical and Electrical Engineering examines how artificial intelligence (AI) is changing the status quo in mechanical engineering, electrical systems, and management. Real-world examples and case studies demonstrate the application of AI in such diverse settings as industry and policymaking. This book illustrates how AI is playing a crucial role in enhancing productivity and innovation in various industries. It discusses transition methods and the ethical implications of using AI in mechanical engineering. Chapter highlights include the following:
- Developing a smart algorithm to integrate fault detection and classification
- Algorithms to investigate different testing scenarios for various anomalies in electric motors
- Data fusion to detect and assess electromechanical damage
- Neural networks for rolling bearing fault diagnosis
- Evolutionary algorithms to optimize deep learning models for water industry forecasts
- AI-based anomaly detection and root-cause analysis
An overarching theme is the transition from traditional mechanical, electrical, and management systems to AI-enabled smart systems. The book helps readers make sense of the challenges of integrating smart systems. It equips engineers with theoretical understanding as well as insight based on hands-on expertise. It shows how to better link and automate systems and improve productivity. This book not only shows how to implement smart solutions now but also shows the way to a more intelligent, productive, and interconnected future.
Questions & Answers from this book
Questions and answers are connected to the referenced book and its available source material.
Chapter 3: A Data Fusion Technique to Detect and Assess Electromechanical Damage
Chapter 7: The Implementation of Artificial Intelligence for Auto Gearbox Failure Detection
Chapter 8: Evolutionary Algorithms to Optimise Deep Learning Model for Water Industry Forecasts
Chapter 10: Artificial Intelligence and Internet of Things-Based Intelligent Scheduling for Load Distribution in Power Grids
According to the experimental results, by what percentage does the proposed source–grid–load–storage collaborative scheduling reduce the average load adjustment compared to no coordinated scheduling and compared to the existing mechanism that only considers energy storage?
The proposed source–grid–load–storage collaborative scheduling reduces the average load adjustment by 50% compared to no coordinated scheduling and by 40% compared to the existing mechanism that only considers energy storage.
What are the two main methods for peak shaving and valley filling in power grids, and how does UPIoT enable them to work together?
The two main methods are user-side policy measures such as time-of-use pricing that encourage voluntary load shifting, and coordinated dispatch of flexible loads and energy storage devices that discharge during peaks and charge during valleys. Under UPIoT, data barriers between the grid and users are broken, so real-time user consumption intentions can be fed into the distribution node and combined with controllable loads and storage in a single coordinated dispatch, allowing both methods to work together more effectively.