Wood valorization is a process through which the properties of wood are enhanced and its value increased, making it more durable, versatile, and suitable for various applications. The methods of wood valorization are mainly divided into chemical processing, mechanical processing, and thermal treatment of wood.
Chemical valorization of wood involves various chemical processes that alter the properties of wood or extract valuable components from it. For example, wood degradation and chemical processing are used to produce cellulose, lignin, and other biopolymers, which are used in the paper, textile, and biochemistry industries. This category also includes impregnation processes, where wood is treated with chemicals to improve its resistance to moisture, fire, and biological damage.
Mechanical valorization of wood refers to processing wood using mechanical methods to produce higher-value products. This includes sawing, planing, and gluing to create building materials, furniture, and interior design elements. It also encompasses the production of wood composites, such as plywood, laminated wood, particle board, and fiberboard, which allow for better material utilization and optimization of strength properties.
Thermal treatment of wood is a process in which wood is heated in a controlled environment to improve its resistance and change its properties. For example, thermally treated wood is more resistant to moisture, biological decay, and pests because the high temperature reduces wood's moisture absorption and alters its chemical composition. This method is widely used in the production of materials for outdoor use, such as decking and facade boards.
Wood valorization maximizes the natural potential of wood, extends its lifespan, and increases its applicability in construction, interior design, and the biochemistry industry. Innovative valorization methods also contribute to sustainable forestry and the circular economy, making wood an even more valuable and environmentally friendly material.
As a result of the project, a method is developed for linking the data obtained from the infrared spectrum with the characteristics of wood or wood products, and a digital solution is created for linking them, which allows to monitor and control processing or production of wood or wood products by using calibration carried out at the location of the application of the method by measuring spectral changes resulting from processing in real time.
The project (2021-2027.1.01.23-0292) is co-funded by the European Union through the European Regional Development Fund (ERDF); funding: 100 729 EUR.
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Appointed Senior Research Fellow in Wood Technology
Institute of Forestry and Engineering
Chair of Forest Management Planning and Wood Processing Technologies
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Visiting Research Fellow of Forest and Wood Industry
Institute of Forestry and Engineering
Chair of Forest Management Planning and Wood Processing Technologies
Appointed Senior Research Fellow in Wood Technology
Institute of Forestry and Engineering
Chair of Forest Management Planning and Wood Processing Technologies
Assistant Professor of Wood Science
Institute of Forestry and Engineering
Chair of Forest Management Planning and Wood Processing Technologies
+372 7313106
+372 73131065032247
5032247Lecturer of Wood Technology
Institute of Forestry and Engineering
Chair of Forest Management Planning and Wood Processing Technologies
+372 7313107
+372 7313107
Junior Research Fellow of Wood Technology
Institute of Forestry and Engineering
Chair of Forest Management Planning and Wood Processing Technologies
Chief Specialist
Institute of Forestry and Engineering
Chair of Forest Management Planning and Wood Processing Technologies
+372 7313157
+372 73131575019691
5019691