(287b) Forecasting Prices of Energy Feedstocks and Commodities Using Advanced Statistical and Machine Learning Methods | AIChE

(287b) Forecasting Prices of Energy Feedstocks and Commodities Using Advanced Statistical and Machine Learning Methods

Authors 

Baratsas, S. - Presenter, Texas A&M University
Hallermann, D. R., Mays Business School
Sorescu, S. M., Mays Business School
Pistikopoulos, E., Texas A&M Energy Institute, Texas A&M University
The prices of energy products and commodities are volatile [1] and sensitive to shifts in demand and supply mechanisms, technological breakthroughs, changes in monetary policy, geopolitical events or other major global challenges [2, 3]. Considering the fact that energy affects every single individual and entity in the world, it is crucial to quantify “the price of energy” accurately, and study how it evolves over time. To this respect, we have developed a novel forecasting framework to calculate the average as well as the market (spot) price of energy in the United States by introducing two indices: The Energy Price Index (EPIC) and the Energy Spot Price Index (ESPIC) respectively [4].

The complex energy landscape is thoroughly analyzed [5-9] to accurately determine the two key factors of this framework: the total demand of the energy products directed to the end-use sectors, and the corresponding price of each product in the form of either a monthly or a spot price [10-14]. We have already presented a rolling horizon forecasting methodology for the demands of energy in the future [4], and here we demonstrate a novel technique to forecast the future prices of energy feedstocks and commodities up to 12 months. The historical prices of each energy product and commodity are studied individually, so as to identify patterns, trends, cycles, outliers, relationships among different variables etc. Then, different forecasting models are fitted in training data sets i.e. Exponential Smoothing, ARIMA, Dynamic Regression, Neural Networks etc. The best forecasting model for each energy product and commodity is selected based on the validation results from testing data sets, and is then utilized to produce the 12 months forecasts. Being able to forecast the future prices of energy has tremendous potential for applications in economics, finance, engineering, law and policy.

References:

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