Providing a suitable model of energy management with multi-response optimization method and transient simulation in combined energy production cycles
Subject Areas :
Abbas Motallebi
1
,
Ahmad Shayannia
2
,
mahdi amirmiandaragh
3
,
ebrahim niknaghsh
4
1 - Faculty of Management, Islamic Azad University, Firuzkoh branch, Firozkoh, Tehran, Iran
2 - Assistant Professor, Faculty of Management, Islamic Azad University, Firuzkoh Branch, Firozkoh, Tehran, Iran
3 - Assistant Professor, Faculty of Mathematics, Islamic Azad University, Firuzkoh branch, Firozkoh, Tehran, Iran
4 - Assistant Prof., Faculty of industrial Management, Islamic Azad University, firozkoh branch, firozkoh,Tehran, Iran
Keywords: Simulation, renewable energies, optimization, transient systems, multi-response optimization,
Abstract :
According to Article 16 of the Knowledge-Based Production Leap Law, all industries that consume more than 2 megawatts of electricity must use 5% of their electricity consumption from renewable energy within 5 years. The model is optimized from the transient simulation method using Transis software, using the test design method, with the help of the response surface method. Two independent factors, the area of the solar panels and the power of the diesel generator have been selected as the main variables, and then the total electricity consumption, the total gas consumption, the total diesel fuel consumption, as well as the return on investment have been selected as the economic answer for optimization. It shows that increasing the area of solar panels with a low slope increases the investment return period. On the other hand, increasing the power of the diesel generator to about 2000 kilowatts helps to reduce the investment return period. But increasing the power of the diesel generator from 2000 to 3000 kilowatts increases the period of return on investment. Optimization using the response surface method showed that the optimal point occurs in the panel area of 11716.89 square meters and in the diesel generator power of 1986.69 kilowatts, the return on investment is 1.612 years, the results showed that the maximum value of the utility function is 0.725. which is a number very close to the maximum possible value (that is, the ideal state whose utility function is equal to 1