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2011 | R. 87, nr 6 | 47-57
Tytuł artykułu

A survey of the Smart Grid Technologies: background motivation and practical applications

Autorzy
Wybrane pełne teksty z tego czasopisma
Warianty tytułu
PL
Przegląd technologii „smart grid” tło, motywacje i praktyczne zastosowania
Języki publikacji
EN
Abstrakty
EN
This paper presents the survey of the smart grid technologies, including the background, motivation and practical applications. The driving forces for the smart grid technologies are presented, including the blackout, global energy crisis and environmental protection requirement. The key technology issues for building the smart grid are discussed. The crucial elements of the smart grid and their applications are introduced, including the un-interruptible power supply (UPS), adaptive var compensator (AVC), static synchronous compensator (STATCOM), active power filter (APF), unified power quality conditioner (UPQC), micro-grid, solar and wind generation, and high voltage direct current (HVDC) transmission technologies.
PL
Artykuł prezentuje przegląd technologii smart grid”. Uwzględniono takie zjawiska jak blackout, globalny kryzys energetyczny i zalecenia ochrony środowiska. Omówiono podstawowe elementy sieci „smart grid” i jej zastosowania, uwzględniając systemy UPS, AVC, STATCOM, APF, UPQC, źródła słoneczne i wiatrowe oraz technologię transmisji napięcia stałego HVDC.
Słowa kluczowe
PL
UPS   FACTS   HVDC   APF   DVR   Solar power  
EN
Wydawca

Rocznik
Strony
47-57
Opis fizyczny
Bibliogr. 55 poz., rys., wykr.
Twórcy
autor
autor
  • Department of Power Electronics, School of Mechatronics Engineering, University of Electronic Science and Technology of China, West Park of Chengdu Hi-Tech Zone, 611731, Chengdu, P.R.China, hanyang_facts@hotmail.com
Bibliografia
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  • [12] Witek B., Selected optimization problems in electric power systems with distributed generation and FACTS elements, Przeglad Elektrot., 86(2010), n.8, 113-118.
  • [13] Rzasa J., Rzepka L., Simulation research of static synchronous series compensator SSSC with use of PSIM program, Przeglad Elektrot., 86(2010), n.1, 217-224.
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  • [16] EI-Sharkawi MA., Dong M., Huang T., Szofran A. Andexler G., Venkata S.S., Butler N., Rodriguez A., Kerszenbaum A., Development and field testing of a 15-kV class adaptive var compensator, IEEE Trans. on Power Deliv., 10(1995), no.4, 1979-1986.
  • [17] Cheng C., Hsu Y., Damping of generator oscillations using an adaptive static var compensator, IEEE Trans. on Power Syst., 7(1992), vol.2, 718-725.
  • [18] Han Y., Xu L., Yao G., Zhou L., Khan MM, Chen C., State- Space Averaging (SSA) Technique for Modeling of the Cascaded H-Bridge Multilevel DSTATCOMs and Active Filters, International Review of Electrical Engineering-IREE, 4(2010), n.5, 744-760.
  • [19] Freitas W.,Morelato A.,Wilsun X.,Sato F., Impact of AC generators and DSTATCOM devices on the dynamic performance of distribution systems, IEEE Trans. on Power Deliv., 20(2005), vol.2, part 2, 1493-1501.
  • [20] Mitra P., Venayagamoorthy G. K., An adaptive control strategy for DSTATCOM applications in an electric ship power system, IEEE Trans. on Power Electron., 25(2010), no.1, 95-104.
  • [21] Han Y., Xu L., Yao G., Zhou LD., Khan MM., Chen C., A novel modulation scheme for dc-voltage balancing control of cascaded H-bridge multilevel APF, Przeglad Elektrot., 85(2009), n. 5, 81-85.
  • [22] Han Y., Xu L., Yao G., Zhou L., Khan MM, Chen C., A Robust Deadbeat Control Scheme for Active Power Filter with LCL Input Filter, Przeglad Elektrot., 86(2010), n.2, 14-19.
  • [23] Han Y., Xu L., Khan MM, Chen C., Yao G., Zhou L., Modelling and controller synthesis of a hybrid-LCL APF for power quality conditioning applications, Przeglad Elektrot., 86(2010), n.9, 326-333.
  • [24] Han Y., Khan MM, Yao G., Zhou L., Chen C., A novel harmonic-free power factor corrector based on T-type APF with adaptive linear neural network (ADALINE) control, Simul. Model. Pract. Theory, 16(2008), n.9, 1215-1238.
  • [25] Han Y., Xu L., Khan MM, Yao G., Zhou L., Chen C., A novel synchronization scheme for grid-connected converters by using adaptive linear optimal filter based PLL (ALOF-PLL), Simul. Model. Pract. Theory, 17(2009), n.8, 1299-1345.
  • [26] Han Y., Khan MM, Xu L., Zhou L., Yao G., Chen C., A novel control strategy for active power filter using synchronous reference frame (SRF) ADALINEs, International Review of Electrical Engineering-IREE, 3(2008), n.4, 629-645.
  • [27] Moradlou M., Karshenas H.R., Design strategy for optimum rating selection of interline DVR, IEEE Trans. on Power Deliv., 26(2011), no.1, 242-249.
  • [28] Milanovic J.V., Yan Z., Modelling of FACTS devices for voltage sag mitigation studies in large power systems, IEEE Trans. on Power Deliv.,25(2010), no.4, 3044-3052.
  • [29] Kinhal V.G., Agarwal P., Gupta H.O., Performance investigation of neural-network-based unified power quality conditioner, IEEE Trans. on Power Deliv., 26(2011),no.1, 431- 437.
  • [30] Han Y., Xu L., Yao G., Zhou L., Khan MM, Chen C., Flicker mitigation of arc furnace load using modified p-q-r method, Przeglad Elektrot., 85(2009), n.1, 225-229.
  • [31] Han Y., Xu L., Yun WJ., Yao G., Zhou LD., Khan MM., Chen C., Power quality enhancement for automobile factory electrical distribution system-strategies and field practice, Przeglad Elektrot., 85(2009), n. 6, 159-163
  • [32] Han Y., Xu L., Yao G., Zhou LD., Khan MM., Chen C., Power system harmonic estimation scheme based on Affine projection adaptive filter theory, Przeglad Elektrot., 85(2009), n. 11, 45-50.
  • [33] Rzasa J., Simulation research of variable impedance type series compensator, Przeglad Elektrot., 85(2010), n.12, 216- 223.
  • [34] Kaczmarek M., Evaluation of the current THD factor on the base of inductive current transformers accuracy, Przeglad Elektrot., 85(2010), n.11b, 237-240.
  • [35] Kaczmarek M., Examination and analysis of parameters describing the output signal in the system for distorted voltage generation, Przeglad Elektrot., 85(2010), n.11b, 99-102.
  • [36] Xu L., Han Y., Yao G., Zhou L., M. M. Khan, Chen C., Pan J., Desynchronized processing technique for harmonic and interharmonic analysis based on cosine window interpolation, Int. Review of Electr. Eng., 4(2009), no.5, 943-956.
  • [37] Biricik S., Ozerdem O., Investigation of switched capacitors effect on harmonic distortion levels and performance analysis with active power filter, Przeglad Elektrot., 85(2010), n.11a, 13-17.
  • [38] Xu L., Han Y., Yao G., Zhou L., M. M.Khan, Chen C., Pan J.,Perfect harmonic cancellation strategy for three-phase four wire APF, Przeglad Elektrot., 85(2010), n.10, 65-70.
  • [39] Xu L., Han Y., Chen C., Pan J., Yao G., Zhou L., M. M. Khan, Implementation of the PWM gating and IGBT protection scheme for the grid connected multilevel inverter applications, Przeglad Elektrot., 85(2010), n.7, 360-365.
  • [40] Akagi H., Aredes M., Monteiro L., Afonso J., Pinto J., Watanabe E., Instantaneous p-q power theory for control of compensators in micro-grids, Przeglad Elektrot., 85(2010), n.6, 1-10.
  • [41] Chochowski A., Czekalski D., Obstawski P., Dynamic properties of flat solar collectors, Przeglad Elektrot., 85(2010), n.6, 257-263.
  • [42] Piotrowicz M., Maranda W., Thermal modelling of photovoltaic modules under highly variable solar radiation, Przeglad Elektrot., 85(2010), n.8, 139-142.
  • [43] Domke K., Ratajczak J., Spectrum analysis of the usefulness of light sources for building sun simulators, Przeglad Elektrot., 85(2010), n.10, 183-186.
  • [44] Raison B., Picault D., Bacha S., Aguilera J., Casa J.D.L., Reducing mismatch losses in grid-connected PV systems by the means of alternative array topologies, Przeglad Elektrot., 85(2010), n.11a, 1-6.
  • [45] Grzesiak W., The MPPT technique in charge controllers used in autonomous photovoltaic systems, Przeglad Elektrot., 85(2010), n.11a, 187-189.
  • [46] Nebel A., Wilch M., Erlich I., Comparison of different voltage control strategies of wind turbines connected to distribution grids, Przeglad Elektrot., 85(2010), n.8, 25-29.
  • [47] Halinka A., Szablicki T., Possible ways of connecting of wind farms to power distribution grid 110kV and distance protection act for symmetrical faults, Przeglad Elektrot., 85(2010), n.8, 50-56.
  • [48] Lubosny Z., Preparation wind farms influence on power stability, Przeglad Elektrot., 85(2010), n.8, 66-69.
  • [49] Hradilek Z., Sumbera T., Simulator of power forecasting gained from wind power plants, Przeglad Elektrot., 85(2010), n.8, 196-199.
  • [50] Cieslik S., Connection of 8th MW wind farm to MV switching station in HV/MV substation in distribution network, Przeglad Elektrot., 85(2010), n.6, 104-109.
  • [51] Tomczewski A., The use of kinetic power storages with a view to improving the conditions of cooperation of a wind turbine and an electric power system, Przeglad Elektrot., 85(2010), n.6, 224-227.
  • [52] Wlas M., Krzeminski Z., Szewczyk J., Pietryka J., The control system of the small wind turbine with induction generator, Przeglad Elektrot., 85(2010), n.2, 71-76.
  • [53] Kasprowicz A., Stabilization of frequency and amplitude of output voltage of the wind power with self-excited induction generator, Przeglad Elektrot., 85(2010), n.2, 237-242.
  • [54] Guo C., Zhao C., Study of an entirely passive AC network through a double-infeed HVDC system, IEEE Trans. on Power Electron., 25(2010),no.11, 2835-2841.
  • [55] Flourentzou N., Agelidis V.G., Demetriades G.D., VSC-based HVDC power transmission systems: an overview, IEEE Trans. on Power Electron., 24(2009),no.3, 592-602.
Typ dokumentu
Bibliografia
Identyfikatory
Identyfikator YADDA
bwmeta1.element.baztech-article-BPOC-0058-0008
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