Data Center Cooling Control Using Causal Learning Signals
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Solution Overview
Problem
Existing machine learning techniques for data center energy management require extensive data and time for training, leading to short periods of optimized operations and potential 'catastrophic forgetting' due to infrastructure changes.
Innovation Solution
Implementing active experimental methods by injecting randomized controlled signals into data center operational controls, monitoring responses, and computing confidence intervals to select optimal signals and continuously learn.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Loss of energy
If advanced machine learning techniques are used to optimize data center cooling, then energy reduction is achieved, but the system requires extensive training data and time
Solution Approach 1:
The system performs preliminary actions by injecting randomized control signals and collecting operational data proactively before optimization is needed. This allows the causal model to be pre-trained on diverse operational conditions, reducing the need for extensive retraining when infrastructure changes occur. The causal model learns relationships between control settings and outcomes in advance, enabling faster adaptation to new equipment configurations.
2Productivity
If complex machine learning models are deployed for predictive optimization, then energy management improves, but the models require years of operational data for training
Solution Approach 1:
The patent introduces a causal model as an intermediary that learns fundamental relationships between control signals and operational outcomes. This causal model serves as a mediator between raw operational data and optimization decisions, requiring significantly less training data than traditional predictive models. The causal model captures invariant relationships that transfer across different data center configurations, reducing the need for years of operational data while maintaining high energy management efficiency.
3Reliability
If traditional machine learning models are used, then initial optimization is achieved, but catastrophic forgetting occurs when infrastructure changes
Solution Approach 1:
The system implements dynamics by continuously updating the causal model with new operational data and injecting randomized exploration signals. This allows the model to adapt dynamically to infrastructure changes such as equipment refreshes or reconfigurations. The causal model's structure enables it to learn new relationships while retaining knowledge of fundamental causal mechanisms, preventing catastrophic forgetting and maintaining reliability across different infrastructure configurations.
Data Source
AI summary
Methods for active data center management by injecting randomized controlled signals in the operational controls of the cooling infrastructure of the data center and receiving response signals corresponding with the injected signals. The injected signals are used to adjust the operational controls of the cooling infrastructure, and the response signals relate to the operational conditions in the data center. Based upon the response signals along with independent and external variables, the randomized signals are continually injected into the cooling infrastructure and fine-tuned based upon the response signals. Optimum or improved parameters for controlling the cooling infrastructure of the data center are determined based upon the signal injections and corresponding responses.


