BAJECE_Vol1_No2

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Anahtar Kelimeler

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Kaynakça

1. R.W. Erickson and D. Maksimovic, "Fundamentals of Power Electronics", Springer Press, 1997.
2. G. YANIK was born in Istanbul, Turkey,
3. in 19 He received his B.S. and M.S.
4. degrees in Electrical Engineering at Yildiz
5. Technical University, Istanbul, in 2008
6. and 2011, respectively.
7. He is a Research Assistant in the
8. Department of Electrical Engineering,

9. Yildiz Technical University since 2008.
10. His research interests include DC-DC converters, soft
11. switching techniques, power factor correction and inductor design.
12. E. ISEN was born in Bandırma, Turkey,
13. in 19 He received his B.S., M.S. and
14. Ph.D. degrees in electrical engineering at
15. Yildiz Technical University, Istanbul, in
16. 2003, 2005 and 2012, respectively.
17. He was a Research Assistant in the
18. Department of Electrical Engineering,
19. Yildiz Technical University between 2005 and 2012. He is an
20. Assistant Professor in the Department of Electrical and
21. Electronics Engineering, Kirklareli University. His current
22. research interests include grid connected inverters, renewable
23. energy conversion systems and power electronics.
24. E.V. Larsen, D.A. Swann, Applying power system stabilizers, Part I, II, III, IEEE Trans. on Power App. and Syst., PAS-100(1981), 3017-3041.
25. F.P. deMello, C.A. Concordia, Concept of synchronous machine stability as affected by excitation control, IEEE Trans.PAS-103 (1969) 316–329.
26. P.M. Anderson, A.A. Fouad, Power system control and stability, lowa State University Press, Ames, 1977.
27. A. Ghosh, G. Ledwich, O.P. Malik, G.S. Hope, Power system stabilizer based on adaptive control techniques,
28. IEEE Trans. PAS 103 (1984), 1983–1989.
29. S.J. Chang, Y.S. Chow, O.P. Malik, G.S. Hope, An adaptive synchronous machine stabilizer, IEEE Trans. PWRS 1, (1986), 101–109.
30. A. Pierre, A perspective on adaptive control of power systems, IEEE Trans. PWRS 2 (1987), 387–396.
31. A. Y. Sivaramakrishnan, M. V. Hariharan, M. C. Srisailam, Design of a variable-structure load controller using pole assignment technique, Int. J. Contr.,40(1984), 487-498.
32. Kothari M.L., Nanda J., K. Bhattacharya, Design of variable structure power system stabilizers with desired eigenvalues in the sliding mode, IEE Proc. Gen., Trans. and Distr., 140(1993), 263-268.
33. Bhattacharya K., Kothari M.L and Nanda J., Design of Discrete-Mode Variable Structure Power System Stabilisers, Electrical power & Energy System, Vol.17, n 6,pp.399-106,1995.
34. Y.M. Park, W. Kim, Discrete time adaptive sliding mode power system stabilizer with only input/output measurements, Electrical power & Energy systems, 18(1996),509-517.
35. S.S. Lee and J.K. Park, Design of power system stabilizer using observer / sliding mode, observer/sliding mode model following and H∞ / sliding mode controllers for small signal stability study, Electrical Power & Energy Systems, Vol.20, 8(1998),pp.543-553.
36. A.L. Elshafei, K. El-Metwally, Power system stabilization via adaptive fuzzy logic, IEEE Proc. of International Symposium on Intelligent Control,(1997),89-95, Istanbul, Turkey.
37. N.H. Zadeh, A. Kalam, A direct adaptive fuzzy power system stabilizer, IEEE Trans. on Energy Conversion, 14(1999).
38. H.M. SoIiman, A.L. Eshafei, A.A. Shaltout, M.F. Mors, Robust power system stabiliser, IEE Proc-Elec. Power Appl., 147(2000),285-291.
39. N.H. Zadeh, A. Kalam, An indirect adaptive fuzzy-logic power system stabiliser, Electrical power & Energy systems, 24(2002), 837-842.
40. A.L. Elshafei, K. El-Metwally, A.A. Shaltout, A variable structure adaptive fuzzy logic stabilizer for single and multi-machine power systems, Control Engineering Practice,13,(2005),413-423.
41. H. M. Soliman, A.L. Elshafei, F. Bendary, W. Mansour, LMI static output-feedback design of fuzzy power system stabilizers, Expert Systems with Applications,36(2009),6817-6825.
42. X. Yu, Z. Man and, B. Wu,” Design of fuzzy sliding mode control systems”, Fuzzy sets and systems. 9165(1998), 295-306.
43. J. J. Slotine, S. S. Sastry, Tracking control of non-linear systems using sliding surfaces, with application to robot manipulators, Int. J. Contr., 38(1983), 465-492.
44. I. R. Petersen, A procedure for simultaneously stabilizing a collection of single input linear systems using non-linear state feedback control, Automatica, 23(1987), 33-40.
45. K. D. Young, Controller design for a manipulator using the theory of variable structure systems, IEEE Trans. Man Cyber., 8(197, 101-109.
46. Y.M. Park, W. Kim, Discrete time adaptive sliding mode power system stabilizer with only input/output measurements, Elect. Power & Energy Systems, 18, (1996), 509-517.
47. J. Ackerman, V. Utkin, Sliding mode control design based on Ackerman’s formula, IEEE Trans. on Aut. Control, 43, (1998), 234-237.
48. V. I. Utkin, Variable structure systems with sliding modes, IEEE Trans. Aut. Cont., AC22 (1977), 212-222.
49. K. D. Young, V. I. Utkin, U. Ozguner, A control Engineer’s guide to sliding mode control, IEEE Trans on Control Syst. Technology, 7 (1999), 328-342.
50. P. Kundur, Power System Control and Stability, Ed. McGrawHill Inc., 1994.
51. http://epp.eurostat.ec.europa.eu/statistics_explained/index.php/Elect
52. ricity_production_and_supply_statistics
53. J. D. Isaacs, W. R. Schmitt, “Ocean Energy: Forms and prospects”, Nature, Vol. 207, Number 4428, pp. 265-273, 18 Jan. 1980.
54. S. Alatsathianos, P. Fafali, “Wave and current energy: A viable scheme to exploit the energy potential of Greek seas”, [Online], Available: http://www.researchgate.net/publication
55. Tidal Resources, [Online], Available: http://www.see.murdoch.edu.au/resources/info/Res/tidal/index.html
56. L B Bernshtein (1996) Tidal Power Plants. Seoul: Korea Ocean Research and Development Institute (KORDI). [Online], Available: http://repository.tudelft.nl/assets/uuid:46a59861-0817-4bf7-a252- b3a9562fdcd6/L.B._Bernshtein_-_Tidal_power_plants.pdf
57. J. Twidell, T. Weir, Renewable Energy Resources, (2nd ed.), Taylor & Francis, 2006
58. S. S. Khalid, Z. Liang, N. Shah, “Harnessing Tidal Energy Using Vertical Axis Tidal Turbine” Research Journal of Applied Sciences, Engineering and Technology 5(1) 2012, pp. 239-252, [Online], Available: http://maxwellsci.com/print/rjaset/v5-239-252.pdf
59. J. Byrne, K. Baldwin, B. Celikkol, R. Swift, M. Wosnik, (2010, Feb. 11) Development of a tidal energy test platform, Univ. of New Hampshire, CORE, [Online], Available: http://www.mrec.umassd.edu/media/supportingfiles/mrec/agendasan dpresentations/2ndconference/jeff_byrne_development_of_a_tidal_ energy_test_platform.pdf
60. Technology: Oscillating Hydrofoil, Marine Current Resource and Technology Methodology' Website: http://www.esru.strath.ac.uk/EandE/Web_sites/05- 06/marine_renewables/technology/oschydro.htm] [12] Sea Generation Ltd, [Online], Available: http://www.seageneration.co.uk/index.php.
61. L.A. Vega, (1999) “Ocean Thermal Energy Conversion (OTEC)”, [Online], articles/ocean-thermal-energy-conversion-otec-by-l-a-vega-ph- d/#economic
62. H. Kobayashi, S. Jitsuhara, H. Uehara, (2001) “The Present Status and Features of OTEC and Recent Aspects of Thermal Energy Conversion Technologies”, National Maritime Research Institute, Japan, [Online], Available: http://www.nmri.go.jp/main/cooperation/ujnr/24ujnr_paper_jpn/Ko bayashi.pdf
63. Nam Jin Kim , Kim Choon Ng , Wongee Chun, Using the condenser effluent from a nuclear power plant for Ocean Thermal Energy Conversion (OTEC), International Communications in Heat and Mass Transfer, 36, pp. 1008–1013, 2009.
64. A. T. Jones, W. Finley, “Recent Developments in Salinity Gradient Power”, OCEANS 2003 Proceedings, Vol. 4, 22-26 Sept. 2003, pp. 2284 – 2287.
65. Tofte prototype plant, [Online], Available: http://www.statkraft.com/energy-sources/osmotic-power/prototype/
66. V. Galabov, (2013) “On the Wave Energy Potential of the Western Black Sea Shelf”, [Online], Available: http://arxiv.org/ftp/arxiv/papers/1304/1304.7806.pdf
67. Feasibility of Developing Wave Power as a Renewable Energy Resource for Hawaii, (2002), Department of Business, Economic Development, http://energy.hawaii.gov/wp-content/uploads/2011/10/Feasibility- of-Developing-Wave-Power-as-a-Renewable-Energy-Resource-for- Hawaii.pdf [Online], Available:
68. G. Hagerman, "Wave Energy Resource and Economic Assessment for the State of Hawaii," Prepared by SEASUN Power Systems for the Department of Business, Economic Development, and Tourism, Final Report, 1992
69. Isley LIMPED Wave Power Plant, The Queen’s University of Belfast Contract JOR3-CT98-0312 Publishable Rep., 1 November 1998 to 30 April 2002, [Online], Available: http://mhk.pnnl.gov/wiki/images/2/25/Islay_LIMPET_Report.pdf
70. Technology: Oscillating water column (OWC) [Online], Available: http://www.wavegen.com
71. Wave Energy in Europe Current Status and Perspectives, (2002) Centre for Renewable Energy Sources (CRES), [Online], Available: http://www.cres.gr/kape/pdf/download/Wave%20Energy%20Broch ure.pdf
72. R. Yemm, (1999) "The history and status of the Pelamis Wave Energy Converter", "Wave power – Moving towards commercial viability", IMECHE Seminar, London, UK
73. Pelamis Technology, Pelamis Wave Power, [Online], Available: http://www.pelamiswave.com/pelamis-technology
74. L. Hamilton (2006, Oct. 25), “AWS MK II. Deployment, monitoring and evaluation of a prototype advanced wave energy device”, AWS http://ec.europa.eu/research/energy/pdf/gp/gp_events/ocean_energy/ 1200_aws-mkii_en.pdf
75. A. F. de O. Falcao, “Wave energy utilization: A review of the technologies, Renewable and Sustainable Energy Reviews 14, 2010, pp.899–918=
76. J. P. Kofoed, P. Frigaard, E. Friis-Madsen, H. C. Sİrensen, “Prototype testing of the wave energy converter Wave Dragon”, Renewable Energy, Vol. 31, Issue 2, Feb. 2006, pp 181–189.
77. Wave Dragon, [Online], Available: http://www.wavedragon.net
78. M. Saglam, “Wave Energy and Technical Potential of Turkey”, Journal of Naval Science and Engineering, Vol. 6, No.2, 2010, pp. 34-50
79. S. Alatsathianos, P. Fafali, (2008) “Wave and current energy: A viable scheme to exploit the energy potential of Greek seas”, [Online], Available: http://www.docin.com/p-385061618.html
80. Innovation technologies for wind and wave energy in the coastal zone, INWECO (2009-2011), funded by the Bulgarian Science Fund , [Online], Available: http://waveconverter.alle.bg
81. G. Stainov, ”Device for converting the energy of the sea waves”, Bulgarian Patent BG 66042 B1 (Priority Doc. 10.06.2008)(in Bulg.).
82. B. Vassilev, G. Stainov, “Adaptive control of linear electro generator for experimental sea waves energy extracting device”, 20th Int. Conference “ROBOTICS & MECHATRONICS '10", 6-9 Oct. 2010, http://waveconverter.alle.bg [Online], Available:
83. H. Bernhoff, E. Sjöstedt, M. Leijon, “Wave energy resources in sheltered sea areas: A case study of the Baltic Sea” Fifth European Wave Energy Conference, 17-20 September 2003, Cork, Ireland, [Online], Available: http://www.el.angstrom.uu.se/meny/artiklar/Wave%20energy%20re sources%20in%20sheltered%20sea%20areas.pdf
84. J. Falnes, Ocean Waves and Oscillating Systems: Linear Interactions Including Wave-Energy Extraction, Cambridge Univ. Pr. 2013.
85. S. Bozzi, A. M. Mique, A. Antonini, G. Passoni, R. Archetti, “Modeling of a Point Absorber for Energy Conversion in Italian Seas”, Energies, 6, 2013, pp. 3033-3051, [Online], Available: www.mdpi.com/journal/energies
86. L. Szabo, C. Oprea, “Linear Generators for Wave Power Plants to Be Set up Near the Romanian Coasts of the Black Sea”, [Online], Available: http://www.researchgate.net/publication/228680531
87. M. A. Mueller, et al., "Low Speed Linear Electrical Generators for Renewable Energy Applications," Proceedings of the Conference on Linear Drives in Industrial Applications, LDIA '2003, Birmingham (UK), pp. 121-124.
88. S. Z. Baykara, E. H. Figen, A. Kale, T. N. Veziroglu, Hydrogen from hydrogen sulphide in Black Sea, International Journal of Hydrogen Energy 32, 2007, pp. 1246 – 1250
89. K. Petrov, S. Z. Baykara, D. Ebrasu, M. Gulin, A. Veziroglu, “An assessment of electrolytic hydrogen production from H2S in Black Sea waters” International Journal of Hydrogen Energy,36, 2011, pp. 8936-8942
90. E. N. Razkazova-Velkova, M. S. Martinov, L. A. Ljutzkanov, N. Dr. Dermendzhieva, V. N. Beschkov, (2013),Catalytic Oxidation of Sulfide Ions in Black Sea Water, Journal of International Scientific Publications: Materials, Methods &Technologies, Vol. 7, Part 1, pp. 456-463, publications.net/download/materials-methods-and-technologies- 2013-1.pdf.
91. http://www.scientific
92. Daniela Dzhonova-Atanasova was born in Vidin,
93. Bulgaria in 1963. She graduated from the Technical
94. University of Sofia, Bulgaria. There she received her
95. MSc degree in Mechanical Engineering in 1988 and
96. her PhD degree in 1992.
97. Her research interests are in the area of Heat and
98. Mass Transfer Processes, Fluid Dynamics, Energy
99. Efficiency in Chemical Engineering and Renewable
100. Energy Resources. Since 1994 she has been working
101. at the Institute of Chemical Engineering at the
102. Bulgarian Academy of Sciences, Sofia, Bulgaria, as
103. a researcher and Assistant Professor. Since 2011 she has been an Associate
104. Professor at the Institute of Chemical Engineering. She was a lecturer in Fluid
105. Mechanics at the Technical University of Sofia, and in Ocean Energy
106. Conversion (in English) at the European Polytecnical University, Pernik.
107. Dr. Dzhonova is a member of the Union of Chemists in Bulgaria.
108. Rumen Popov was born in Plovdiv, Bulgaria, in
109. M. Adjoudj et al, "Sliding mode control of a doubly fed induction
110. generator for wind turbines", conversion systems. Rev. Roum. Sci. Techn.
111. – Électrotechn. et Énerg., Vol.56, No.1, 2011, pp.15-24.
112. R. Manavalan, C.S. Kumar, "Analysis of Hybrid Renewable Energy
113. System using NPC Inverter", Research Inventy: International Journal of
114. Engineering and Science, Vol.2, No.7, March 2013, pp. 26-30.
115. G. Abad J. Lopez, M.A. Rodrıguez, L. Marroyo, G. Iwanski, "Doubly fed
116. induction machine: modeling and control for wind energy generation",
117. IEEE press Series on Power Engineering, Aug 2011.
118. F. Poitiers, M. Machmoum, R.L. Doeuff and M.E. Zaim, “Control of a
119. doubly-fed induction generator for wind energy conversion system”,
120. Australasian Universities Power Engineering Conference AUPEC 2009, Australia.
121. M. Hilal, Y. Errami, M. Benchagra and M. Maaroufi "Fuzzy Power
122. Control For Doubly Fed Induction Generator Based Wind Farm," Journal
123. of Theoretical and Applied Information Technology, 30th September
124. 2012, Vol. 43 No.2, pp.321-330.
125. F. Valenciaga, C.A. Evangelista "Sliding active and reactive power
126. control of a wind energy conversion system", IET Control Theory and
127. Applications, Vol.4, No.11, 2010, pp.2479-2490.
128. R. Palm, "Sliding mode fuzzy control," Fuzzy Systems, IEEE conference
129. proceeding, Vol.2, 2002, pp. 1393-1398.
130. S. Arezki, M. Boudour, “Contribution to the improvement of the
131. performances of a chain of conversion of energy fed by a double source”,
132. 2nd International Conference on Advances in Energy Engineering
133. (ICAEE 2011), December 2011, Bangkok , Thailand.
134. F. Piltan, N. Sulaiman, S. Roosta, A. Gavahian, S. Soltani, “Artificial
135. Chattering Free on-line Fuzzy Sliding Mode Algorithm for Uncertain
136. System: Applied in Robot Manipulator, International Journal of
137. Engineering, Vol.5, No.5, 2011, pp.360-379.
138. L. Xu and P. Cartwright, "Direct Active and Reactive Power Control of
139. DFIG for Wind Energy Generator", IEEE Transactions on Energy
140. Conversion, Vol.21, No.3, September 2006, pp. 750–758.