Acetic acid has a long history that dates back to the days when it was derived from for vinegar and utilized for a variety of things, including food preservation, agriculture and medicine. Acetic acid was first produced industrially in the 19th century, and it quickly rose to prominence as a key chemical in the manufacturing of products including dyes, textiles, and plastics. Currently, acetic acid is widely utilized in the chemical industry to create a variety of chemicals, such as vinyl acetate, acetic anhydride, and cellulose acetate. Acetic acid obtains a rising importance from biomass pyrolysis, also in the context of Carbon sequestration and circular economies.

The first step in the separation process involves applying a solvent extraction method to remove water and other polar substances. The aAcetic acid is then isolated from the resulting extract using fractional distillation. Acetic acid is detected and measured quantified in the distillate using gas chromatography-mass spectrometry (GC-MS). The technology that has been created is tuned Purpose of this article is to produce maximize the production the most of acetic acid possible. A laboratory-scale pyrolysis test is conducted to make pyrolysis liquid from biomass in order to assess the effectiveness and efficiency of the suggested process. Several analytical methods, including High-performance liquid chromatography and elemental analysis, are used to characterize the separated acetic acid. Amongst others, the main parameter of this optimization process is the temperature at which biomass is pyrolyzed. Given acetic acid being one of the main pyrolysis product, this study can also serve as a lead or pilot to optimize the production of other pyrolytic acids.