CONDITION MONITORING of POWER TRANSFORMER - BIBLIOGRAPHY SURVEY 2 Jashandeep Singh Bahra Group of Institutions, Patiala Campus, Punjab, India
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International Journal of Engineering Science Invention Research & Development; Vol. III, Issue III, September 2016 www.ijesird.com, e-ISSN: 2349-6185 CONDITION MONITORING OF POWER TRANSFORMER - BIBLIOGRAPHY SURVEY 2 Jashandeep Singh Bahra Group of Institutions, Patiala Campus, Punjab, India Key Words: Dielectric response, Dissolved gas analysis (DGA), Condition monitoring, Oil Insulation, Paper Insulation, Bubble effect, Drying process, Mechanical strength, Copper sulphur, Partial discharge (PD), Moisture. Key Phrase: There is a universal requirement for up-to-date bibliographic information on insulation system of power transformer in the academic, research and engineering communities. I. INTRODUCTION Power transformers are one of the most expensive elements in a power system and their failure due to any reason is a very bad event also to maintain & rectify the problems related to insulation failure become more expensive. Power transformers are mainly involved in the energy transmission and distribution. Unplanned power transformer outages have a considerable economics impact on the operation of electric power network. To have reliable operation of transformers, it is necessary to identify problems at an early stage before a catastrophic failure occurs. In spite of corrective and predictive maintenance, preventive maintenance of power transformer is gaining due importance in the modern era and it must be taken into account to obtain the highest reliability of power apparatus such as power transformers. The well known preventive maintenance techniques such as DGA, conditioning monitoring, partial discharge measurement, effect of moisture, Paper insulation, Oil insulation, mechanical strength, thermal conductivity, copper sulphur, bubble effect, drying process, thermal degradation, fault diagnosis, etc. are performed on transformer for a specific type of problem. There is a universal requirement for up-to-date bibliographic information on insulation system of power transformer in the academic, research and engineering communities. The same topic was earlier updated in 2008 and it is observed that many new areas have been identified by the researchers such as bubble effect, copper sulphur, mechanical strength, etc. This article lists relevant references grouped according to the topics described above. The research scholars can found all the research which have been carried out till date in this paper. II. DISSOLVED GAS ANALYSIS (2014-2008) [1] F. Wan, W. Chen et al., ―Using a sensitive optical system to analyze gases dissolved in samples extracted from transformer oil", IEEE Electr. Insul. Mag., vol. 30, no. 5, pp. 15-22, 2014. [2] U. Khayam, A. Susilo et al., ―Partial discharge characteristics and dissolved gas analysis of vegetable oil‖, in Conf. Record IEEE Int. Symp. Electr. Insul., vol. 2, pp. 330–333, 2014. [3] N. A. Bakar, S. Islam et al., ―A review of dissolved gas analysis measurement and interpretation techniques‖, IEEE Electr. Insul. Mag., vol. 30, no. 3, pp. 39-49, 2014. [4] T. Piotrowski, ―Probability distributions of gases dissolved in oil of failed power transformers‖, in Proc. Int. Conf. High Voltage Eng. Appl. (ICHVE), pp. 1-4, Sep 2014 . [5] AnXin Zhao, Xiaojun Tang et al., ―The on-site DGA detecting and analysis system based on the Fourier transform infrared instrument‖ in Proc. IEEE 12st Int. Conf. Instru. Measur. Technol., pp. 1036 – 1040, 2014. [6] Z. Sahri, R. Yusof et. al., ―FINNIM: Iterative Imputation of Missing Values in Dissolved Gas Analysis Dataset‖, IEEE Trans. Ind. Informat., vol. 10, no. 4, pp. 2093 – 2102, 2014. [7] Zhou Quan, Wang Shizheng et al., ―Power transformer fault diagnosis based on DGA combined with cloud model‖, in Proc. Int. Conf. High Voltage Eng. and Appl. (ICHVE), pp. 1-4, Sep 2014 . [8] M. Duval, L. 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