<tideeAbstracts><tideeAbs><RefNo>566</RefNo><PublishYear>2002</PublishYear><Contributors>Lunghi P and Ubertini S</Contributors><Affiliation>Dipartimento di Ingegeria Industriale,<break />Universita di Perugian, Via G. Duranti 1A/4, 06125 Perugia, Italy<break /><<email>lunghi@unipg.it</email>></Affiliation><Source><italic>Journal of Engineering for Gas Turbines and Power</italic><bold>124</bold>(4):858–866</Source><Title>Efficiency upgrading of an ambient pressure molten carbonate fuel cell plant through the introduction of an indirect heated gas turbine

TERI

TERI Information Digest on Energy and Environment

0972-6721

The Energy and Resources Institute

tidee-1-3-015

ABSTRACTS OF DISSERTATIONS OR ARTICLES

Direct energy conversion

92002

13422422

<tideeAbstracts><tideeAbs><RefNo>566</RefNo><PublishYear>2002</PublishYear><Contributors>Lunghi P and Ubertini S</Contributors><Affiliation>Dipartimento di Ingegeria Industriale,<break />Universita di Perugian, Via G. Duranti 1A/4, 06125 Perugia, Italy<break /><<email>lunghi@unipg.it</email>></Affiliation><Source><italic>Journal of Engineering for Gas Turbines and Power</italic><bold>124</bold>(4):858–866</Source><Title>Efficiency upgrading of an ambient pressure molten carbonate fuel cell plant through the introduction of an indirect heated gas turbineThe efficient and environmentally friendly production of electricity is undoubtedly one of the 21st century priorities. Since renewable sources will be able to guarantee only a share of the future demand, the present research activity must focus on innovative energy devices and improved conversion systems and cycles. Great exceptions are reserved to fuel cell systems. The direct conversion from chemical to electrical energy eliminates environmental problems connected with combustion and bypass the stringent efficiency limit due to Carnot's principle. Still in infancy, high-temperature fuel cells present the further advantage of feasible cycle integration with steam or gas turbines. In this paper, a molten carbonate fuel cell plant is simulated in a cycle for power generation. The introduction of an external combustion gas turbine is evaluated with the aim of efficiency and net power output increase. The results show that the proposed cycle can be conveniently used as a source of power generation. As compared to internal combustion gas turbine hybrid cycles found in the literature, the plant is characterized by greater simplicity of the fuel cell due to the absence of pressuri-zation, and increased complexity of the gas turbine due to the presence of the heat exchange system.(11 figures, 3 tables, 18 references)