Designing Mechatronic Musical Instruments: The Guitar
Since the earliest times, humans have sought the ability to produce rhythms and tones using devices external to the human body. As technology developed, so too did the desire for this sound production to become automated. Initially peaking around the Industrial Revolution, traditional automated musi...
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doaj-64d01c9bf18a4da086cc79000ef7ca6e2021-03-30T03:11:26ZengIEEEIEEE Access2169-35362020-01-018573725738810.1109/ACCESS.2020.29810529037315Designing Mechatronic Musical Instruments: The GuitarDale A. Carnegie0Jim W. Murphy1Juan Pablo Yepez Placencia2https://orcid.org/0000-0002-3887-7153School of Engineering and Computer Science, Victoria University of Wellington, Wellington, New ZealandNew Zealand School of Music, Victoria University of Wellington, Wellington, New ZealandSchool of Engineering and Computer Science, Victoria University of Wellington, Wellington, New ZealandSince the earliest times, humans have sought the ability to produce rhythms and tones using devices external to the human body. As technology developed, so too did the desire for this sound production to become automated. Initially peaking around the Industrial Revolution, traditional automated musical production devices went into a steep decline with the arrival of the phonograph. However, factors such as the ubiquitous acceptance of the microcontroller led to a resurgent interest in this field. This paper investigates the design considerations and development of the stringed chordophone and specifically the guitar. The challenge is to produce a mechatronic device capable of speedy and reliable note selection, string actuation, string damping and expressiveness. In the same manner that there is not one best way to play a guitar and no best guitar design, so too is there no “best” chordophone design. Rather, the competing factors of speed, precision, reliability, portability, expressiveness and timbral variation can be given different weightings and result in different designs. Therefore, rather than presenting a single chordophone development, this paper provides a multitude of design options providing an interested reader with the background and suggestions to create their own bespoke design. This paper concludes with the presentation of the authors' final design as an integration of the presented ideas and design techniques. We demonstrate that this chordophone introduces expressivity at a level not achieved before, is modular yet portable, is mechanically quiet and can play at a speed beyond that of even the best human player.https://ieeexplore.ieee.org/document/9037315/Automated music productionmechatronic chordophonemechatronic music |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Dale A. Carnegie Jim W. Murphy Juan Pablo Yepez Placencia |
spellingShingle |
Dale A. Carnegie Jim W. Murphy Juan Pablo Yepez Placencia Designing Mechatronic Musical Instruments: The Guitar IEEE Access Automated music production mechatronic chordophone mechatronic music |
author_facet |
Dale A. Carnegie Jim W. Murphy Juan Pablo Yepez Placencia |
author_sort |
Dale A. Carnegie |
title |
Designing Mechatronic Musical Instruments: The Guitar |
title_short |
Designing Mechatronic Musical Instruments: The Guitar |
title_full |
Designing Mechatronic Musical Instruments: The Guitar |
title_fullStr |
Designing Mechatronic Musical Instruments: The Guitar |
title_full_unstemmed |
Designing Mechatronic Musical Instruments: The Guitar |
title_sort |
designing mechatronic musical instruments: the guitar |
publisher |
IEEE |
series |
IEEE Access |
issn |
2169-3536 |
publishDate |
2020-01-01 |
description |
Since the earliest times, humans have sought the ability to produce rhythms and tones using devices external to the human body. As technology developed, so too did the desire for this sound production to become automated. Initially peaking around the Industrial Revolution, traditional automated musical production devices went into a steep decline with the arrival of the phonograph. However, factors such as the ubiquitous acceptance of the microcontroller led to a resurgent interest in this field. This paper investigates the design considerations and development of the stringed chordophone and specifically the guitar. The challenge is to produce a mechatronic device capable of speedy and reliable note selection, string actuation, string damping and expressiveness. In the same manner that there is not one best way to play a guitar and no best guitar design, so too is there no “best” chordophone design. Rather, the competing factors of speed, precision, reliability, portability, expressiveness and timbral variation can be given different weightings and result in different designs. Therefore, rather than presenting a single chordophone development, this paper provides a multitude of design options providing an interested reader with the background and suggestions to create their own bespoke design. This paper concludes with the presentation of the authors' final design as an integration of the presented ideas and design techniques. We demonstrate that this chordophone introduces expressivity at a level not achieved before, is modular yet portable, is mechanically quiet and can play at a speed beyond that of even the best human player. |
topic |
Automated music production mechatronic chordophone mechatronic music |
url |
https://ieeexplore.ieee.org/document/9037315/ |
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