JOURNAL ARTICLE

Towards Workload Trend Time Series Probabilistic Prediction via Probabilistic Deep Learning

Abstract

The workloads of autonomous driving traffic accident cloud data centers exhibit high variance and uncertainty. Accurate modeling and prediction of the variance and uncertainty of cloud workloads are crucial for the realization of reliable resource management in cloud data centers. Existing solutions are point prediction methods that can not capture the variance and uncertainty of the cloud workloads. In this paper, we propose a workload probabilistic prediction method with deep learning to model and predict the variance and uncertainty of cloud workload. Our method is a hybrid deep learning model which combines exponential smoothing, bidirectional long short-term memory (BLSTM) and quantile regression. First, a cloud workload pre-processing method based on exponential smoothing is proposed to smooth the high variance feature of cloud workloads. Then, a BLSTM based cloud workload algorithm is introduced. Finally, a differentiable quantile loss function is introduced into the prediction model to generate predictions of multiple quantiles. The experimental results on the Google cluster trace show that our method outperforms other four baseline models.

Keywords:
Computer science Cloud computing Probabilistic logic Exponential smoothing Workload Variance (accounting) Quantile Time series Smoothing Data mining Artificial intelligence Deep learning Machine learning Statistics Mathematics

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Topics

Traffic Prediction and Management Techniques
Physical Sciences →  Engineering →  Building and Construction
Air Quality Monitoring and Forecasting
Physical Sciences →  Environmental Science →  Environmental Engineering
Cloud Computing and Resource Management
Physical Sciences →  Computer Science →  Information Systems
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