Energy and Power Engineering | Article | Published 2020

Features of operation of the grid connected photovoltaic power station with a capacity of 10 kW

Collection: E3S Web of Conferences 216, 01172 (2020)
Keywords: Photovoltaic power station (PPS)

Abstract

Photovoltaic power station (PPS) operating function (without redundancy) with a nominal capacity of 10 kW connected to the low voltage electrical network established by "Zhejiang Chint Electrics Co Ltd" (PRC) under Tashkent conditions is defined. Operation parameters and characteristics of the PPS and parameters at the output of the network inverter are given. The deviations of voltage of each phase from the standard nominal voltage at the point of electric network transmission are studied. The analysis of the results of the evaluation of the power generation of the PPS for the conditions of clear weather and clear cloudiness was carried out. According to the monitoring data for the winter period is 2211,5 kW·h. The problems of PPS connected to the low- voltage network, connected to the loss of electric power with the account of influence of external factors and reliability of stable voltage and frequency in a permissible range are revealed.

References

  1. 1. K.K. Zaynutdinova Solar Energy
  2. Marketing in Uzbekistan. Monograph.
  3. Publishing house "Fan" of the
  4. Academy of Sciences of Uzbekistan.
  5. P.-186 (2011)
  6. 2. Tursunov, M.N.; Yuldoshev, I.A.;
  7. Shoguchkarov, S.K. Photovoltaic
  8. power stations, integration into the
  9. low-voltage electric network in the
  10. rural regions // "Use of the renewable
  11. energy sources: new research,
  12. technologies and innovative
  13. approaches". Materials of the
  14. conference of SPA "Physics-Sun" 25-
  15. 26 September. С. 43-46 (2018)
  16. 3. I.A. Yuldoshev, K.K. Tashmatov,
  17. E.B. Saitov, Bernd Wurl.
  18. Introduction and operation of the
  19. solar photovoltaic station integrated
  20. with the local electrical network //
  21. Geliotekhnika, 4. 59-62 (2017)
  22. 4. I.A. Yuldoshev, Z.I. Zhuraeva,
  23. S.K. Shoguchkarov, S.S. Mahmudov
  24. Peculiarities of operation of solar
  25. photovoltaic station connected with
  26. local network of Islam Karimov
  27. TSTU // "Modern problems of
  28. renewable energy". Collection of
  29. materials of the Republican
  30. scientific-practical conference.18-19
  31. May. Karshi pp.102-104 (2018)
  32. 5. www.chint.net (date of
  33. address:12.03.2020)
  34. 6. Kulkarni and Shingare A review
  35. on power quality challenges in
  36. renewable energy grid integration
  37. 1573-1574-1575 // International
  38. Journal of Current Engineering and
  39. Technology, 6(5) (2016)
  40. 7. Liu H., Jin L., Le D., and
  41. Chowdhury A. Impact of high
  42. penetration of solar photovoltaic
  43. generation on power system small
  44. signal stability, II in International
  45. Conference on Power System
  46. Technology (POWERCON), pp. 1–7.
  47. (2010)
  48. 8.A. Almeida, L. Moreira, J. Delgado
  49. (2013), Power Quality Problems and
  50. New Solutions, ISR Department of
  51. Electrical and Computer Engineering
  52. University of Coimbra, Vol. 3030-
  53. 290, pp. 1-9 Coimbra, Portugal,
  54. (2014)
  55. 9. Sandhu M., Thakur T. Issues,
  56. Challenges, Causes, Impacts and
  57. Utilization of Renewable Energy
  58. Sources Grid Integration.
  59. International Journal of Engineering
  60. Research and Applications, Vol. 4,
  61. pp. 636-643 (2014)
  62. 10. GOST 32144-2013 Electric
  63. power quality standards in general
  64. purpose power supply systems (2013)
  65. 11. GOST 30804.4.30.-2013 (IEC
  66. 61000-4-30:2008) Electric energy.
  67. Compatibility of technical means
  68. electromagnetic. Methods of
  69. measuring quality indicators of
  70. electric energy (Interstate Standard) (
  71. 2013)
  72. 12. Yuldoshev, I.A., Shoguchkarov,
  73. S.K., Kudratov, A.R., Jamolov,
  74. T.R. A Study of the Parameters of a
  75. Combined Photo-Thermoelectric
  76. Installation under Field Conditions //
  77. Applied Solar Energy V.56. No. 2.
  78. pp. 125-130
  79. 13. Singh, P., Ravindra, N.
  80. Temperature dependence of solar cell
  81. performance — an analysis. Sol.
  82. Energ. Mat. Sol. Vol. 101, pp.36-45
  83. (2012)
  84. 14. Emery, K., Burdick, J., Caiyem,
  85. Y., Dunlavy, D., Field, H., Kroposki,
  86. B., Moriarty, T., Ottoson, L.,
  87. Rummel, S., Strand, T., Wanlass,
  88. M.W. Temperature dependence of
  89. photovoltaic cells, modules and
  90. systems. Photovolt. Spec. Conf.
  91. (PVSC), pp.1275-1278 (1996)
  92. 15. M.N. Tursunov, V.G. Dyskin,
  93. I.A. Yuldoshev, B.M. Turdiev
  94. Influence of the convective heat
  95. exchange on the solar photovoltaic
  96. battery temperature. Applied Solar
  97. Energy. V. 50. No 4, pp. 236-237
  98. 16. M. N. Tursunov, V.G. Dyskin,
  99. I.A. Yuldashev, Kh. Sobirov, Park
  100. Jeong Hwoan. A Criterion of
  101. Contamination of the Glass Surface
  102. of Photovoltaic Batteries // Applied
  103. Solar Energy.V.51. pp. 163-164
  104. (2015)
  105. 17. Nurhasliza Hashim, M.N.
  106. Mohammed, Rubendren A. L.
  107. Selvarajan, Salah Al-Zubaidi,
  108. Samaher Mohammed Study on Solar
  109. Panel Cleaning Robot. IEEE
  110. International Conference on
  111. Automatic Control and Intelligent
  112. Systems (I2CACIS), 29 June,
  113. Selangor, Malaysia (2019)
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