Recent studies employing the Photo-Thermal Thermogravimetry Analyzer (PT-TGA) have significantly advanced our understanding of biomassBiomass is a complex biological organic or non-organic solid product derived from living or recently living organism and available naturally. Various types of wastes such as animal manure, waste paper, sludge and many industrial wastes are also treated as biomass because like natural biomass these More pyrolysis, particularly under rapid heating conditions. This research focused on the pyrolysis of cellulose, hemicellulose, and lignin, revealing how interactions among these components can enhance the pyrolysis process and gas production, notably hydrogen (H2).

In the experiments, cellulose, hemicellulose, and lignin were pyrolyzed at temperatures ranging from 550°C to 850°C at a heating rate of 100°C/min. Findings indicated that the interaction between cellulose and lignin not only lowered the reaction temperatures but also increased the peak weight loss rate, significantly boosting H2 production. Notably, the H2 yield reached 128.13 mL/g of biomass, surpassing the expected 75.35 mL/g based on non-interactive models.

The study found that radicals formed during the pyrolysis of hemicellulose facilitated the production of carbon-containing gases only up to 650°C. Beyond this temperature, their effectiveness diminished. Conversely, the radicals from cellulose and lignin interactions proved more robust, enhancing H2 production throughout the tested temperature range.

Importantly, the research established that for full-component pyrolysis, calculating the yield of C-containing gases requires an interaction coefficient between components. This coefficient is crucial for accurately predicting gas yields, demonstrating that three-component interactions are less influential than those between two components.

Through this research, a detailed interaction mechanism among the three primary biomass components was outlined, contributing valuable insights into optimizing the fast pyrolysis process. Such studies highlight the potential of PT pyrolysis to efficiently convert biomass into valuable gases and char, leveraging rapid thermal processes that differ fundamentally from conventional slow pyrolysis methods.

This investigation not only sheds light on the thermal behavior and chemical interactions within biomass but also paves the way for more efficient industrial applications of pyrolysis technologies, aiming at maximizing gas yields and enhancing the quality of biocharBiochar is a carbon-rich material created from biomass decomposition in low-oxygen conditions. It has important applications in environmental remediation, soil improvement, agriculture, carbon sequestration, energy storage, and sustainable materials, promoting efficiency and reducing waste in various contexts while addressing climate change challenges. More products. As the world seeks greener solutions, understanding and improving biomass pyrolysis stands out as a key technological pathway.