Abstract
Nowadays, industrial sectors are suffering from electrical power crisis due to the shortage of generation capacity, insufficient conservation, and ineffective supervision. In this investigation that have studied the industrial sector’s effects on the power crisis. There are selected 57 industries which have visited and then analyzed the collected data accurately. This research investigates the impact of electrical disturbances caused by severe power outages and analyzed. Two methodologies have been developed and used for this research. One depends on the industrial consumer’s survey, and others depend on mathematical models that are considered on unavoidable recreational estimates. It has found that a large number of industries are suffering from the power crisis that is facing different types of losses, and some industries have taken different back-up procedures to overcome the losses. The mentioned failures, due to the different types of interruptions, cause a massive economic loss in these industries and afterward lower the gross domestic product. The back-up power generator and a captive power plant is an appropriate option to prevail with this problem, but these are costly and have environmental pollution. This research increases the awareness of energy conservation and the implementation of an aggressive program that can direct the industrial sector in reducing this massive destructive influence on the economic system. This article offers new statistics and information that can be used in various kinds of cost–benefit analysis in the Planning and operation of the power system in the Industrial Sector.
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References
Zheng Xu, Jianyong Ding, Chao Shang, Qingsheng Lei, Xiaoxin Wang (2016) An assessment method of grid outage cost considering multifactorial influences. Eng J Wuhan Univ 49(1):83–87
Sekkeli Mustafa (2017) Power quality improvement using hybrid passive filter configuration for wind energy systems. J Electr Eng Technol 12(1):207–216
Bagdadee AH (2017) Power quality analysis by the rippletechnique. J Appl Adv Res 2(4):227–234. https://doi.org/10.21839/jaar.v2i4.74
Kim Ho-Chan (2015) Power quality control of hybrid wind power systems using robust tracking controller. J Electr Eng Technol 10(2):688–698
Guna Sekar T (2015) Design, and implementation of solar PV for power quality enhancement in three-phase four-wire distribution system. J Electr Eng Technol 10(1):75–82
Bayliss CR, Hardy BJ (2017) Transmission and distribution electrical engineering, 6th edn. Elsevier, Oxford
Bagdadee AH (2016) Imitation intellect techniques implement for improving power quality in supply network. IEEE international conference on signal processing, communication, power and embedded system (SCOPES)
Rajput RK (2017) A utilisation of electrical power. Laxmi Publications, India
USAID/SARI (2016) Assessment of economic impact of poor power quality on industry-Sri Lanka, Nexant
Zhu J (2017) Optimization of power system operation. Wiley, New Jersey
Bagdadee AH (2015) ‘Rural electrification through micro-grid in Bangladesh. Eng Sci Technol J 10:5 (ISSN: 1465-2382)
Chan JY, Milanović JV, Delahunty A (2011) Risk-based assessment of financial losses due to voltage sag. IEEE Trans Power Deliv 26:492–500
Milanović JV, Gupta CP (2006) Probabilistic assessment of financial losses due to interruptions and voltage sags-part I: the methodology. IEEE Trans Power Deliv 21:918–924
Milanović JV, Yan Z (2010) Global minimization of financial losses due to voltage sags with FACTS based devices. IEEE Trans Power Deliv 25:298–306
Alhasawi FB, Milanović JV (2012) Techno-economic contribution of FACTS devices to the operation of power systems with high level of wind power integration. IEEE Trans Power Syst 27:1414–1421
Groppelli AA, Nikbakht E (2000) Finance. Barrons Educational Series Inc, New York
Short TA (2014) Electric power distribution handbook, 2nd edn. CRC Press, New York
Chan JY (2010) Framework for assessment of economic feasibility of voltage sag mitigation solutions. Ph. D. Dissertation Manchester (UK): Dep. Electr. And Electro. Eng., University of Manchester
Sekar TC, Rabi BJ (2012) A review and study of harmonic mitigation techniques. In: Proceedings of international emerging trends in electrical engineering and energy management, Chennai
Liao HL, Abdelrahman S, Guo Y, Milanović JV (2015) Identification of weak areas of power network based on exposure to voltage sags—Part II: assessment of network performance using sag severity index. IEEE Trans Power Deliv 30:2401–2409
Cebrian JC, Milanovic JV, Kagan N (2015) Probabilistic assessment of financial losses in the distribution network due to fault-induced process interruptions considering process immunity time. IEEE Trans Power Deliv 30:1478–1486
Acknowledgements
This work was supported by Hohai University under China Scholarship Council (CSC) no. 2017GXZ019296.
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Appendix
Appendix
1.1 Sample of Questionnaire
Dear Respondent,
Thank you beforehand for participation in this questionnaire. The questions have divided into five parts. The first part concentrates on general information of the company. Other parts include information on electricity consumption, loss due to planned, unplanned and voltage variation and standby or captive power plant information and feedback from the industry.
This questionnaire is made for scientific purposes as a part of the thesis so that it is anonymous and would be handling confidentially. The participation is very welcome (Table 13).
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Bagdadee, A.H., Zhang, L. Power Quality Impact on the Industrial Sector: A Case Study of Bangladesh. J. Electr. Eng. Technol. 14, 1841–1857 (2019). https://doi.org/10.1007/s42835-019-00220-y
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DOI: https://doi.org/10.1007/s42835-019-00220-y