Microgrid Based Hybrid Energy Co-Operative for Grid-Isolated Remote Rural Village Power Supply for East Coast Zone of India

Parida, Adikanda; Choudhury, Sanjib; Chatterjee, Debashis

doi:10.1109/tste.2017.2782007

Cited by 59 publications

(25 citation statements)

References 32 publications

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“…[24][25][26][27] The stator and the rotor of the DFIG are coupled to the common DC link to minimize the complexity in dynamics of power control by isolating DFIG stator frequency. DFIG has the capability of voltage stability over wide speed range based on variable turbine input.…”

Section: Proposed Hybrid Generation Schemementioning

confidence: 99%

“…DFIG has the capability of voltage stability over wide speed range based on variable turbine input. [24][25][26][27] The stator and the rotor of the DFIG are coupled to the common DC link to minimize the complexity in dynamics of power control by isolating DFIG stator frequency. As shown in Figure 3, the total load has been planned to be connected to the DC link, which may be extended to serve as the DC microgrid for multiarea power supply through a multigenerator system including the electric vehicle charging load.…”

Section: Proposed Hybrid Generation Schemementioning

confidence: 99%

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Remote area power supply through suitable solar PV augmented micro‐hydro generation: A case study

Parida

Chatterjee

2019

Int Trans Electr Energ Syst

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Summary Electrification in remote villages using locally available hybrid renewable energy sources is a viable option to eradicate energy poverty. At the same time, energy supply to the unprivileged population at the affordable cost is a major issue. Moreover, appropriate technology is the key factor for the sustainable operation of small‐scale generation system in remote places. Therefore, in this paper, a simple controller‐based standalone solar photovoltaic (PV) augmented micro‐hydro generation system suitable for remote area has been proposed. Because of its robustness for wide speed range applications, doubly fed induction generator (DFIG) has been used for micro‐hydro power generation in the proposed scheme. The developed controller effectively stabilizes the load voltage with load, micro‐hydro generation, and solar PV generation variations. In order to provide cost‐effective renewable power supply to the rural population, a generation capacity trade‐off criterion has been developed considering solar PV and micro‐hydro generations as the two operators. In the proposed trade‐off process, cost analysis has been performed considering the salvage dumping cost (SDC) for solar PV. The proposed hybrid generation scheme has been simulated through HOMER Pro‐3.2 for cost‐benefit analysis. Also, a prototype hardware set‐up for the proposed scheme has been developed and tested successfully. In this paper, Section 1 describes literature review; Section 2 discusses power generation strategy; Section 3 discusses energy cost analysis; and Section 4 describes experimental results.

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Section: Proposed Hybrid Generation Schemementioning

confidence: 99%

Section: Proposed Hybrid Generation Schemementioning

confidence: 99%

Remote area power supply through suitable solar PV augmented micro‐hydro generation: A case study

Parida

Chatterjee

2019

Int Trans Electr Energ Syst

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“…Small-scale wind energy generation, on the other hand, has remained a niche technology, in spite of its significant potential for supplying small and isolated loads [3], households, or off-grid communities with no access to the electricity distribution network, and it contributes to clean energy goals in residential, urban [4], and industrial settings [5]. Small-scale wind energy generation is often recognized to be a major component in overcoming energy poverty [6], both on a stand-alone basis and in conjunction with other generators, such as solar photovoltaic, diesel generators, and storage [7]. Small-scale wind energy generation is ideal for balancing solar generation and reducing the size of backup generators (if any) and storage facilities in hybrid systems.…”

Section: Introductionmentioning

confidence: 99%

“…shows a spatial wind field map for one instant taken from the simulation of 600 seconds with an average speed of 10 m/s and a high level of turbulence intensity (corresponding to 21% according to Equation(7).…”

mentioning

confidence: 99%

Comparative Fatigue Life Assessment of Wind Turbine Blades Operating with Different Regulation Schemes

et al. 2019

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A comparative evaluation of the fatigue damage occurring in the blades of small wind turbines, with different power regulation schemes, has been conducted for the first time. Three representative test cases were built, one based on stall regulation and two using pitch regulation. The power curves were tuned to be identical in all cases, in order to allow for a direct comparison of fatigue damage. A methodology combining a dynamic simulation of a wind turbine forced by stochastic wind speed time series, with the application of the IEC 61400-2 standard, was designed and applied for two levels of turbulence intensity. The effect of the wind regime was studied by considering Weibull-distributed wind speeds with a variety of parameter sets. Not unexpectedly, in typical wind regimes, stall regulation led to a generally higher fatigue damage than pitch regulation, for similar structural blade design, but the practical implications were smaller than thought previously. Given the need for cost-effective designs for small wind turbines, stall regulation may be a viable alternative for off-grid applications.

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“…A solar and wind hybrid system is discussed in [13] to provide electrical power to the east coast zone of India. A hybrid microgrid system is utilized to distribute the power to the loads.…”

Section: Introductionmentioning

confidence: 99%

Energy Storage in Battery for Remote Area Using Wind Dfig Generation

M¹,

P²,

Praveenraj³

2019

International Journal of Advances in Signal and Image Sciences

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In this study, an efficient system is designed to maintain the Direct Current (DC) link voltage and improving voltage gain at remote side inverter using Hysteresis Controller (HC). The energy from wind is fed to the Remote Area Power Systems (RAPS). There is a need to control the changing frequency due to environmental changes in order to sustain the voltage at inverter side. It is achieved by the HC controller that provides control signals to inverter switches. The two-levels of Energy Storage System (ESS) are used as battery at source side and transformer at load side. The battery stores energy from the power converter stage through bi-directional converter where the energy flows in both forward and reverse direction. The frequency regulation based RAPS system is implemented using MATLAB/Simulink tool.

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Microgrid Based Hybrid Energy Co-Operative for Grid-Isolated Remote Rural Village Power Supply for East Coast Zone of India

Cited by 59 publications

References 32 publications

Remote area power supply through suitable solar PV augmented micro‐hydro generation: A case study

Remote area power supply through suitable solar PV augmented micro‐hydro generation: A case study

Comparative Fatigue Life Assessment of Wind Turbine Blades Operating with Different Regulation Schemes

Energy Storage in Battery for Remote Area Using Wind Dfig Generation

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