Test of the Mechanical and Acoustic Parameters of the Electric Guitar Body
Source abstract
Abstract
The aim of the work is a mechanical and acoustic analysis of electric guitar bodies. Samples of ash, oak, walnut, lime tree, and fir were selected for mechanical tests - with constant moisture content, made of latewood, and free from defects. The tests were carried out on the Brinell device to determine the hardness of the wood and on the MCT3 machine from Anton Paar to determine the microhardness and elastic moduli. The elastic properties of wood are determined by its anisotropy and have different values depending on the direction of force in relation to the fibers. The wood showed the greatest stiffness along the fibers and, in the case of forces acting perpendicular to the fibers, the stiffness was much lower. Sound transmission tests of selected acoustic parameters were carried out. They involved measuring and analyzing the frequency and damping of vibrations of guitar bodies using a special vibration sensor. The acoustic parameters of a guitar body experimentally made from walnut were compared with those of a mass-produced Ibanez guitar made of ash wood. Each species of wood has its own characteristic blend of physical properties, such as grain structure, density, weight, and strength, which influence the final tonal power of the guitar. The test results of various wood species indicate significant strength and acoustic-resonance differences, which determine the absorption of vibrations, sound amplification, and sound transmission. The use of specific wood for a guitar body is related to the musician's artistic vision and the purpose of the instrument.
Source: crossref · Quality: baseline
Research context
OpenAlex topics: Music Technology and Sound Studies · Material Properties and Processing · Wood Treatment and Properties
SciVX discovery tags are terminology-based. OpenAlex topics are source-provided classifications.
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