4.7 Article

Thermogravimetric analysis of solid biomass fuels and corresponding emission of fine particles

Journal

ENERGY
Volume 237, Issue -, Pages -

Publisher

PERGAMON-ELSEVIER SCIENCE LTD
DOI: 10.1016/j.energy.2021.121609

Keywords

Biomass; Fine particles; Particulate matter; Combustion; Pyrolysis; TGA

Funding

  1. EU [CZ.02.1.01/0.0/0.0/15_003/0000456]
  2. Czech Republic Operational Programme Research, Development and Education [CZ.02.1.01/0.0/0.0/16_026/00 08392]
  3. project of Brno University of Technology [FSI S-20-6280]

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This paper investigates the particulate matter emissions of 27 different types of solid biofuels through experimental determination using thermogravimetric analysis. The study reveals a relationship between particulate matter emissions and sample ash content and volatile matter content.
A significant problem of biofuel combustion is the emerging emissions of particulate matter. This paper deals with the experimental determination of the particulate matter emission characteristics of 27 different types of conventional and less traditional solid biofuels. Thermogravimetric analysis is used for the controlled heating of all tested samples from 25 degrees C to 650 degrees C with a 10 degrees C.min(-1) heating rate. The analysis is performed for two atmosphere compositions, namely 21 % O-2 and 0 % O-2. The resulting flue gas is fed to an instrument allowing fine particles' detection ranging from 18 to 545 nm in diameter. The relation between the temperature of fuel samples and the number and mass of the generated particles is investigated. The percentage of the original sample mass converted to particles is determined. Subsequently, particulate matter emission is expressed as a relation to sample ash content and sample volatile matter content. The specific particulate matter emissions range of all tested samples are expressed per megajoule of higher heating value (HHV): 1.02-2.67.10(15) #.MJ(-1) and 694-2844 mg MJ(-1) in the at-mosphere with 21 % of O-2 and 1.11-3.29.10(15) #.MJ(-1) and 898-6823 mg MJ(-1) in the atmosphere without oxygen (pyrolysis). (C) 2021 Elsevier Ltd. All rights reserved.

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