2015
DOI: 10.1177/0734242x15590472
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Techno-economic analysis of CHP system supplied by waste forest biomass

Abstract: Poland, as for Europe, is a country with an average forest cover of approximately 30%. In these forests, more than 37M m3 of wood, mostly coniferous (over 80%), is harvested per year. In 2012, 4.2M m3 of sawn timber was produced (sawn timber without factory lumber). At the same time, in Poland there are over 8000 sawmills, whereas only about 700 of them saw over 90% of the harvested timber. So much fragmentation is a major cause of low sawmills innovation, particularly of those small ones. However, in recent y… Show more

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Cited by 7 publications
(4 citation statements)
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“…Biomass energy comes directly or indirectly from the photosynthesis of green plants and it is stored in biomass carriers such as crops [54], plants [55], vegetation [56], waste frost [57] and wood [58], spent coffee grounds [59], Scenedesmus [60] and microalgae [61], etc., in the form of chemical energy. The energy stored in biomass is abundant, which is eligible to be converted into biosolid [62], bio-oil [63] and biogas [64] fuels or directly co-firing with conventional fuels (e.g., coal [65]).…”
Section: Biomass Energy Applicationmentioning
confidence: 99%
“…Biomass energy comes directly or indirectly from the photosynthesis of green plants and it is stored in biomass carriers such as crops [54], plants [55], vegetation [56], waste frost [57] and wood [58], spent coffee grounds [59], Scenedesmus [60] and microalgae [61], etc., in the form of chemical energy. The energy stored in biomass is abundant, which is eligible to be converted into biosolid [62], bio-oil [63] and biogas [64] fuels or directly co-firing with conventional fuels (e.g., coal [65]).…”
Section: Biomass Energy Applicationmentioning
confidence: 99%
“…Several other papers were published in this area in the previous SDEWES special issues, dealing with: trigeneration systems including fuel cells and supplied by municipal waste [74], building integrated trigeneration systems [75], cogeneration for wood industry in Serbia [76], simulation of a cogenerative micro-gas turbine operating at partial load conditions [77], cogeneration systems supplied by waste forest biomass [78], interaction between cogeneration systems and electrical vehicles [77,79], integration of solar energy in district heating systems [80], incentivizing mechanisms for trigeneration plants in Italy [81].…”
Section: Polygeneration and District Heatingmentioning
confidence: 99%
“…The utilization of biomass residues as a feedstock for renewable heating systems is increasing [6,7]. Biomass residues from forests have great potential for energy use [8,9] and are considered economically viable, e.g. in South-eastern European countries [10].…”
Section: Introductionmentioning
confidence: 99%
“…Techno-economic [8], social [23] and environmental assessments [9,25,27], are fundamental for such bioenergy concepts and shed light on the viability for their realization. In order to succeed, the concepts shall primarily be economically feasible and affordable to the consumers [23].…”
Section: Introductionmentioning
confidence: 99%