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Recent Advances in Biomass Energy Torrefaction, Pyrolysis and Gasification Technologies

A special issue of Energies (ISSN 1996-1073). This special issue belongs to the section "A4: Bio-Energy".

Deadline for manuscript submissions: 10 April 2025 | Viewed by 1348

Special Issue Editor


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Guest Editor
Faculty of Process and Environmental Engineering, Lodz University of Technology, 90-924 Lodz, Poland
Interests: distributed energy systems using upgraded (torrefied, torrefied and pelletized) biomass for cogeneration units; additives for fertilizers and active carbon production as a core technology for novel; more sustainable energy and agriculture systems
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Special Issue Information

Dear Colleagues,

Biomass as a feedstock has huge potential to replace fossil fuels and it should reduce greenhouse gas (GHG) emissions by 2050. Today, the world’s main problem is that CO2 emissions are rising every year, and in 2020, the atmospheric CO2 concentration was already higher than 410 ppm, which is beyond the safe global limits. This implies that the anthropogenic activity from fossil fuel combustion still plays an important role in energy consumption, even though great efforts have been made to generate power from solar and wind energy. Recently, bioenergy has become the fourth largest primary energy source after oil, coal, and natural gas, and is proven to be very advantageous. Biomass torrefaction is a thermochemical process (carbonization and roasting) that treats biomass at 200–350 ⁰C. It is carried out under atmospheric conditions and in the absence of oxygen. During the process, the water contained in the biomass as well as superfluous volatiles are removed, and the biopolymers (cellulose, hemicellulose and lignin) partly decompose, releasing various types of volatiles (i.e., torrefaction off-gas volatiles).

By using thermochemical conversion of biomass feedstocks, it is possible to upgrade biomass feedstocks through the use of different types of valorization techniques, such as the following:

  • Pyrolysis;
  • Dry torrefaction (oxidative or non-oxidative conditions);
  • Wet torrefaction (water and diluted acid);
  • Steam torrefaction;
  • Gasification.

The torrefaction process can be categorized and group into dry and wet torrefaction; it can be also divided into oxidative torrefaction and non-oxidative torrefaction. In the last 20 years, a great number of different torrefaction methods have been investigated and developed. Non-oxidative torrefaction, commonly termed torrefaction, has been shown to have a greater potential for commercial applications and industrial applications compared to other methods.

This Special Issue will focus on different biomass torrefaction processes and their applications in low-carbon demand industries for the production of carbonized solid biofuels, biochar as an additive for organize fertilizers, biosorbents’ production for chemical industry, and thermochemical process production. This Special Issue will also address torrefaction process upgrades to obtain new bioproducts for special (functional applications) purposes, for example, activated carbon for deodorization in biogas plants. We therefore invite papers exploring biomass torrefaction process technology, bioproduct production for different industrial applications, torrefaction process kinetics modeling, reviews, industrial demo examples, case study scenarios, and LCA analysis of biomass torrefaction plants. Topics of interest for publication include, but are not limited to, the following:

  • Biomass torrefaction technologies;
  • Biomass torrefaction modeling: lab-scale, semi-industrial-scale and full-scale scenarios;
  • Kinetics of biomass torrefaction processes;
  • Techno-economical assessments of biomass torrefaction plants;
  • Emission problems related to biomass torrefaction product storage;
  • Safety aspects of biomass torrefaction processes in semi-industrial and industrial-scale scenarios;
  • Environmental evaluation of biomass torrefaction processes;
  • Optimization of biofuel production processes;
  • Impacts of raw material processing on product parameters;
  • LCA and SLCA analysis of biomass torrefaction plants.

Dr. Szymon Szufa
Guest Editor

Manuscript Submission Information

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Keywords

  • pyrolysis
  • pyrolysis oil
  • dry torrefaction
  • wet torrefaction
  • steam torrefaction
  • biofuels
  • biochar
  • gasification
  • synthesis of gas
  • byproducts

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Published Papers (1 paper)

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Research

23 pages, 3079 KiB  
Article
European Green Deal: Substantiation of the Rational Configuration of the Bioenergy Production System from Organic Waste
by Inna Tryhuba, Anatoliy Tryhuba, Taras Hutsol, Szymon Szufa, Szymon Glowacki, Oleh Andrushkiv, Roman Padyuka, Oleksandr Faichuk and Nataliia Slavina
Energies 2024, 17(17), 4513; https://doi.org/10.3390/en17174513 - 9 Sep 2024
Cited by 1 | Viewed by 855
Abstract
A review of the current state of the theory and practice of bioenergy production from waste allowed us to identify the scientific and applied problem of substantiating the rational configuration of a modular anaerobic bioenergy system, taking into account the volume of organic [...] Read more.
A review of the current state of the theory and practice of bioenergy production from waste allowed us to identify the scientific and applied problem of substantiating the rational configuration of a modular anaerobic bioenergy system, taking into account the volume of organic waste generated in settlements. To solve this problem, this paper develops an approach and an algorithm for matching the configuration of a modular anaerobic bioenergy production system with the amount of organic waste generated in residential areas. Unlike the existing tools, this takes into account the peculiarities of residential areas, which is the basis for accurate forecasting of organic waste generation and, accordingly, determining the configuration of the bioenergy production system. In addition, for each of the scenarios, the anaerobic digestion process is modeled, which allows us to determine the functional indicators that underlie the determination of a rational configuration in terms of cost and environmental performance. Based on the use of the developed tools for the production conditions of the Golosko residential area, Lviv (Ukraine), possible scenarios for the installation of modular anaerobic bioenergy production systems are substantiated. It was found that the greatest annual benefits are obtained from the processing of mixed food and yard waste. The payback period of investments in modular anaerobic bioenergy production systems for given conditions of a residential area largely depends on their configuration and ranges from 3.3 to 8.4 years, which differ from each other by 2.5 times. This indicates that the developed toolkit is of practical value, as it allows the coordination of the rational configuration of modular anaerobic bioenergy production systems with real production conditions. In the future, it is recommended to use the proposed decision support system to model the use of biomass as an energy resource in residential areas, which ensures the determination of the rational configuration of a modular anaerobic bioenergy production system for given conditions. Full article
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