A Multiplier Approach to Power Generation for Remote Tropical Regions
evaluating alternative ways, biomass converters, compute multiplier effects
Abstract
Multiplier effects can be relevant for evaluating alternative ways of generating electricity, especially in remote regions, were the superior method might be different from the method that would be chosen in a location near transport hubs. Remote tropical regions often have easily gathered amounts of biomass, and they also have sufficient sunlight to make solar energy a competitive way of generating electricity. Remote tropical regions also have export revenues that are currently being used to import gasoline and diesel for small-scale portable generators. Recent innovations in biomass converters and solar panels make it possible for these regions to create local employment and save scarce foreign exchange, while generating electricity more cheaply. We discuss these alternatives and compute multiplier effects to arrive at promising result.
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Jean-Florian Brau, Matteo Morandin, Thore Berntsson (2013) Hydrogen for oil refining via biomass indirect steam gasification: energy and environmental targets. 15(3), 501-512.
Mark Bolinger, Samantha Weaver (2013) Utility-Scale Solar 2012: An Empirical Analysis of Project Cost, Performance, and Pricing Trends in the United States.
A Buswell, H Mueller (1952) Mechanism of Methane Formation. 44(3), 550-552.
Paris Fokaides, Irene-Chrysovalanto, Marina K.-A Miltiadous, Lia-Paschalia Neophytou, Spyridou (2014) Promotion of wind energy in isolated energy systems: the case of the Orites wind farm. 16(3), 477-488.
Farah Halek, Armin Delavari, Ali Kavousi-Rahim (2013) Production of biodiesel as a renewable energy source from castor oil. 15(6), 1063-1068.
J Hicks (1937) Mr. Keynes and the "Classics"; A Suggested Interpretation. 5(2), 147.
Wai Ho, Shin, Haslenda, Hashim, Jiří Jeng Shiun Lim, Klemeš (2013) Combined design and load shifting for distributed energy system. Clean Technologies and Environmental Policy. 15, 433-444.
Vladislovas Katinas, Eugenijus Karbauskaitė, Rokas Perednis, Valančius (2013) Efficiency analysis of combined biomass and solar energy in Lithuania. Clean Technologies and Environmental Policy. 15, 667-676.
Prakash Kotecha, Heriberto Diwekar, Cabezas (2013) Model-based approach to study the impact of biofuels on the sustainability of an ecological system. 15(1), 21-33.
Josef Maroušek (2013) Removal of hardly fermentable ballast from the maize silage to accelerate biogas production. 44(0), 253-257.
Josef Maroušek (2013) Prospects in straw disintegration for biogas production. 20(10), 7268-7274.
Josef Maroušek (2013) Pretreatment of sunflower stalks for biogas production. 15(4), 735-740.
Josef Maroušek (2014) Significant breakthrough in biochar cost reduction. 16(8), 1821-1825.
Josef Maroušek, Robert Zeman, Radka Vaníčková, Simona Hašková (2014) New concept of urban green management. 16(8), 1835-1838.
K Osterem (2004) Greening Waste: Anaerobic Digestion for Treating the Organic Fraction of Municipal Solid Wastes.
(2011) Review of the generation costs and deployment potential of renewable electricity technologies in the UK.
Deborah Panepinto, Enrico Giuseppe Genon, Daniele Brizio, Russolillo (2013) Production of green energy from co-digestion: perspectives for the Province of Cuneo, energetic balance and environmental sustainability. 15(6), 1055-1062.
Paul Samuelson (1939) Interactions between the Multiplier Analysis and the Principle of Acceleration. 21(2), 75.
Deborah Panepinto, Francesca Viggiano, Giuseppe Genon (2014) The potential of biomass supply for energetic utilization in a small Italian region: Basilicata. 16(5), 833-845.
Jouko Paunio, Jukka Pekkarinen (1976) The Hicksian Revision of the Multiplier Analysis of Expansion. 78(1), 3.
E Serna (2009) Anaerobic Digestion Process.
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2015-03-24
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