scholarly journals Integrating fuel cell power systems into building physical plants

1996 ◽  
Author(s):  
J Carson
1993 ◽  
Vol 81 (3) ◽  
pp. 399-408 ◽  
Author(s):  
R. Anahara ◽  
S. Yokokawa ◽  
M. Sakurai

2015 ◽  
Vol 293 ◽  
pp. 312-328 ◽  
Author(s):  
Harikishan R. Ellamla ◽  
Iain Staffell ◽  
Piotr Bujlo ◽  
Bruno G. Pollet ◽  
Sivakumar Pasupathi

Author(s):  
Mohammad Omar Abdullah ◽  
Voon Chun Yung ◽  
Audra Anak Jom ◽  
Alvin Yeo Wee ◽  
Martin Anyi ◽  
...  

The eBario project has won the eAsia Award and the Mondialogo Engineering Award in 2004 and 2005 respectively for it’s successful implementation of an Information and Telecommunications Technology Center (ICT) and solar renewable energy-incentive rural community project at the Bario Highland of Sarawak, East Malaysia, Borneo (http://www.unimas.my/ebario/). Although solar photovoltaic (PV) energy has been opted for power generation at the ICT Telecenter for the past five years, there is still a need to investigate the cost-effectiveness of the current energy setup as well as to conduct sustainability study taking into account factors such as system efficiency, weather, costs of fuel, operating costs, as well as to explore the feasibility of implementing alternative energy resources for the rural ICT Telecenter. Recent theoretical study conducted has shown that renewable combined power systems are more sustainable in terms of supplying electricity to the ICT Telecenter, and in a more cost-effective way compared to a standalone PV system which is subject to the cloud and the recent dense haze problems. For that purpose, two combined power systems are being put into consideration namely PV-Hydro and PV-Hydro-Fuel Cell, where the total simulated annualized cost for these two system configurations are US$10,847 and US$76,010 respectively as far as the present location is concerned. The PVHydro-Fuel Cell produces electrical energy at the amount of 3,577 kWh/yr while the annual energy consumption is 3,203 kWhr/yr. On the other hand, PV-Hydro produces 3,789 kWhr/yr of electricity annually load which consumes energy at 3,209 kWhr/yr. Results thus obtained has shown that the PVHydro scheme is expected to have advantages over the existing PV standalone system. Firstly, it is more cost-effective. Secondly, it provides the best outcomes for the local indigenous community and the natural highland environments both for now and the future. Thirdly, it also able to relate the continuity of both economic and social aspects of the local society as a whole. As the combined PV-Hydro system had been chosen, plus for completeness purposes, the present paper also discussed the custom design and construction of a small waterwheel breast-shot hydro-generator, suited to the local location and existing water energy resources. Energy saving design calculations and Sankey diagram showing the energy flows for the new combined system are also given herein. Finally, the energy system performance equations and the performance curves introduced in this study provide a new simple method of evaluating renewable energy systems.


This paper provides the management methods of AC & DC smart grids. AC smart grids square measure a convenient approach to integration distributed energy systems with utility power systems. Smart grid may be a arrangement of smart generators, fuel cell, storage systems and masses. DC micro grids will cause additional economical integration of distributed generation. The methods of smart grids measure completely by the management of converters. In solar panel maximum cost utilized in storage systems like battery. In this paper a latest method has been recommended to replace the battery with fuel cell. Stored hydrogen used as a fuel which generate electricity. In this type of hydrogen storage system efficiency is not more than 55 percentages. This paper explaining about the scheme of the management methods of converter and the management methods of smart grids in each AC & DC conditions


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