Mobile Clavier: New Music Keyboard for Flexible Key Transpose
Total Page:16
File Type:pdf, Size:1020Kb
Load more
Recommended publications
-
Hereby Certify That I Wrote My Diploma Thesis on My Own, Under the Guidance of the Thesis Supervisor
Institute of Informatics in the field of study Computer Science and specialisation Computer Systems and Networks FPGA based hardware accelerator for musical synthesis for Linux system Jakub Duchniewicz student record book number 277132 thesis supervisor dr hab. inz.˙ Wojciech M. Zabołotny WARSAW 2020 FPGA based hardware accelerator for musical synthesis for Linux system Abstract. Work focuses on realizing audio synthesizer in a System on Chip, utilizing FPGA hardware resources. The resulting sound can be polyphonic and can be played directly by an analog connection and is returned to the Hard Processor System running Linux OS. It covers aspects of sound synthesis in hardware and writing Linux Device Drivers for communicating with the FPGA utilizing DMA. An optimal approach to synthesis is researched and assessed and LUT-based interpolation is asserted as the best choice for this project. A novel State Variable IIR Filter is implemented in Verilog and utilized. Four waveforms are synthesized: sine, square, sawtooth and triangle, and their switching can be done instantaneously. A sample mixer capable of spreading the overflowing amplitudes in phase is implemented. Linux Device Driver conforming to the ALSA standard is written and utilized as a soundcard capable of generating the sound of 24 bits precision at 96kHz sampling speed in real time. The system is extended with a simple GPIO analog sound output through 1 pin Sigma-Delta DAC. Keywords: FPGA, Sound Synthesis, SoC, DMA, SVF 3 Sprz˛etowy syntezator muzyczny wykorzystuj ˛acy FPGA dla systemu Linux Streszczenie. Celem pracy jest realizacja syntezatora muzycznego na platformie SoC (System on Chip) z wykorzystaniem zasobów sprz˛etowych FPGA. -
The Cimbalo Cromatico and Other Italian Keyboard Instruments With
Performance Practice Review Volume 6 Article 2 Number 1 Spring The imbC alo Cromatico and Other Italian Keyboard Instruments with Ninteen or More Division to the Octave (Surviving Specimens and Documentary Evidence) Christopher Stembridge Follow this and additional works at: http://scholarship.claremont.edu/ppr Part of the Music Practice Commons Stembridge, Christopher (1993) "The imbC alo Cromatico and Other Italian Keyboard Instruments with Ninteen or More Division to the Octave (Surviving Specimens and Documentary Evidence)," Performance Practice Review: Vol. 6: No. 1, Article 2. DOI: 10.5642/ perfpr.199306.01.02 Available at: http://scholarship.claremont.edu/ppr/vol6/iss1/2 This Article is brought to you for free and open access by the Journals at Claremont at Scholarship @ Claremont. It has been accepted for inclusion in Performance Practice Review by an authorized administrator of Scholarship @ Claremont. For more information, please contact [email protected]. Early-Baroque Keyboard Instruments The Cimbalo cromatico and Other Italian Keyboard Instruments with Nineteen or More Divisions to the Octave (Surviving Specimens and Documentary Evidence) Christopher Stembridge In an earlier article1 it was demonstrated that the cimbalo cromatico was an instrument with nineteen divisions to the octave. Although no such instrument is known to have survived, one harpsichord and a keyboard from another instrument, while subsequently altered, show clear traces of having had 19 keys per octave in the middle range. The concept was further developed to produce instruments with 24, 28, 31, 3, and even 60 keys per octave. With the exception of Trasuntino's 1606 Clavemusicum Omni- tonum, none of these survives; documentary evidence, however, shows that they were related to the cimbalo cromatico, as this article attempts to demonstrate. -
About the RPT Exams
About the RPT exams... Tuning Exam Registered Piano Technicians are This exam compares your tuning to a “master professionals who have committed themselves tuning” done by a team of examiners on the to the continual pursuit of excellence, both same piano you will tune. Electronic Tuning in technical service and ethical conduct. Aids are used to measure the master tuning Want to take The Piano Technicians Guild grants the and to measure your tuning for comparison. Registered Piano Technician (RPT) credential In Part 1 you aurally tune the middle two after a series of rigorous examinations that octaves, using a non-visual source for A440. the RPT test skill in piano tuning, regulation and In Part 2 you tune the remaining octaves by repair. Those capable of performing these any method you choose, including the use of tasks up to a recognized worldwide standard Electronic Tuning Aids. This exam takes about exams? receive the RPT credential. 4 hours. No organization has done more to upgrade the profession of the piano technician than Find an Examiner PTG. The work done by PTG members in Check with your local chapter president or developing the RPT Exams has been a major examination committee chair first to see if contribution to the advancement of higher there are local opportunities. Exam sites Prepare. include local chapters, Area Examination standards in the field. The written, tuning Boards, regional conferences and the Annual and technical exams are available exclusively PTG Convention & Technical Institute. You to PTG members in good standing. can also find contact information for chapter Practice. -
Roland AX-Edge Parameter Guide
Parameter Guide AX-Edge Editor To edit the tone parameters of the AX-Edge, you’ll use the “AX-Edge Editor” smartphone app. You can download the app from the App Store if you’re using an iOS device, or from Google Play if you’re using an Android device. AX-Edge Editor lets you edit all the parameters except system parameters of the AX-Edge. © 2018 Roland Corporation 02 List of Shortcut Keys “[A]+[B]” indicates the operation of “holding down the [A] button and pressing the [B] button.” Shortcut Explanation To change the value rapidly, hold down one of the Value [-] + [+] buttons and press the other button. In the top screen, jumps between program categories. [SHIFT] In a parameter edit screen, changes the value in steps + Value [-] [+] of 10. [SHIFT] Jumps to the Arpeggio Edit screen. + ARPEGGIO [ON] [SHIFT] Raises or lowers the notes of the keyboard in semitone + Octave [-] [+] units. [SHIFT] Shows the Battery Info screen. + Favorite [Bank] Jumps between parameter categories (such as [SHIFT] + [ ] [ ] K J COMMON or SWITCH). When entering a name Shortcut Explanation [SHIFT] Cycles between lowercase characters, uppercase + Value [-] [+] characters, and numerals. 2 Contents List of Shortcut Keys .............................. 2 Tone Parameters ................................... 19 COMMON (Overall Settings) ............................. 19 How the AX-Edge Is Organized................ 5 SWITCH .............................................. 20 : Overview of the AX-Edge......................... 5 MFX ................................................. -
Design and Applications of a Multi-Touch Musical Keyboard
DESIGN AND APPLICATIONS OF A MULTI-TOUCH MUSICAL KEYBOARD Andrew McPherson Youngmoo Kim Drexel University Drexel University [email protected] [email protected] ABSTRACT gesture and sound can be dynamically adjusted. On the other hand, touch-screen interfaces lack the tactile feed- This paper presents a hardware and software system for back that is foundational to many musical instruments, and adding multiple touch sensitivity to the piano-style key- they require the consistent visual attention of the performer. board. The traditional keyboard is a discrete interface, In this paper, we explore a synthesis between keyboard defining notes by onset and release. By contrast, our sys- and multi-touch interfaces by integrating multiple touch tem allows continuous gestural control over multiple di- sensitivity directly into each key. We present a new capac- mensions of each note by sensing the position and contact itive sensor system which records the spatial location and area of up to three touches per key. Each key consists of contact area of up to three touches per key. The sensors can a circuit board with a capacitive sensing controller, lami- be installed on any acoustic or electronic keyboard. The nated with thin plastic sheets to provide a traditional feel sensor hardware communicates via USB to a host com- to the performer. The sensors, which are less than 3mm puter, which uses the Open Sound Control (OSC) protocol thick, mount atop existing acoustic or electronic piano key- [1] to transmit both raw touch data and higher-level gestu- boards. The hardware connects via USB, and software on a ral features to any sound synthesis program. -
Cathedral Chimestm
32 Cathedral ChimesTM A fresh approach to organ chimes Patented striker design is quiet, efficient, and virtually maintenance free. Dampers lift off tubes for as long as a key is held. Solid state relay with fixed strike pulse timing is included. Very easy to install in most organs. Custom keying cables are available to further simplify installation. Beautiful brushed brass tubes or aluminum chime bars. Also available as an “action only” for use with older chime tubes. Some years ago, Peterson set out to see what could Beautiful satin-finished brass chime tubes or silver be done to modernize and improve the traditional colored anodized aluminum bars are precision tuned tubular chimes that have been part of fine organs for with Peterson stroboscopic tuning instruments and decades. It was quickly realized that chimes and chime engineered for optimal harmonic development. A actions were still being made the same way they had Peterson chime rail and relay may also be provided been made 40 years earlier. They still had the same as an “action only” to replace an old, defective action problems with imprecise tuning; uneven and difficult to while utilizing original tubes having diameters up to adjust actions; heavy and hard-to-install cables; sparking 1-1/2 inches. contacts; and a host of other pitfalls all too well known The Cathedral Chimes system’s easy connection to organbuilders and service technicians. A subsequent to almost any pipe organ requires only a small cable, two-year development program was begun to address making it practical to display chimes and to better and overcome these concerns, and ultimately the TM capitalize on their beautiful appearance. -
A New History of the Carillon
A New History of the Carillon TIFFANY K. NG Rombouts, Luc. Singing Bronze: A History of Carillon Music. Translated by Com- municationwise. Leuven: Leuven University Press, 2014, 368 pp. HE CARILLON IS HIDDEN IN plain sight: the instrument and its players cannot be found performing in concert halls, yet while carillonneurs and Tkeyboards are invisible, their towers provide a musical soundscape and focal point for over six hundred cities, neighborhoods, campuses, and parks in Europe, North America, and beyond. The carillon, a keyboard instrument of at least two octaves of precisely tuned bronze bells, played from a mechanical- action keyboard and pedalboard, and usually concealed in a tower, has not received a comprehensive historical treatment since André Lehr’s The Art of the Carillon in the Low Countries (1991). A Dutch bellfounder and campanologist, Lehr contributed a positivist history that was far-ranging and thorough. In 1998, Alain Corbin’s important study Village Bells: Sound and Meaning in the Nineteenth-Century French Countryside (translated from the 1994 French original) approached the broader field of campanology as a history of the senses.1 Belgian carillonneur and musicologist Luc Rombouts has now compiled his extensive knowledge of carillon history in the Netherlands, Belgium, and the United States, as well as of less visible carillon cultures from Curaçao to Japan, into Singing Bronze: A History of Carillon Music, the most valuable scholarly account of the instrument to date. Rombouts’s original Dutch book, Zingend Brons (Leuven: Davidsfonds, 2010), is the more comprehensive version of the two, directed at a general readership in the Low Countries familiar with carillon music, and at carillonneurs and music scholars. -
Design and Application of the Bivib Audio-Tactile Piano Sample Library
applied sciences Article Design and Application of the BiVib Audio-Tactile Piano Sample Library Stefano Papetti 1,† , Federico Avanzini 2,† and Federico Fontana 3,*,† 1 Institute for Computer Music and Sound Technology (ICST), Zurich University of the Arts, CH-8005 Zurich, Switzerland; [email protected] 2 LIM, Department of Computer Science, University of Milan, I-20133 Milano, Italy; [email protected] 3 HCI Lab, Department of Mathematics, Computer Science and Physics, University of Udine, I-33100 Udine, Italy * Correspondence: [email protected]; Tel.: +39-0432-558-432 † These authors contributed equally to this work. Received: 11 January 2019; Accepted: 26 February 2019; Published: 4 March 2019 Abstract: A library of piano samples composed of binaural recordings and keyboard vibrations has been built, with the aim of sharing accurate data that in recent years have successfully advanced the knowledge on several aspects about the musical keyboard and its multimodal feedback to the performer. All samples were recorded using calibrated measurement equipment on two Yamaha Disklavier pianos, one grand and one upright model. This paper documents the sample acquisition procedure, with related calibration data. Then, for sound and vibration analysis, it is shown how physical quantities such as sound intensity and vibration acceleration can be inferred from the recorded samples. Finally, the paper describes how the samples can be used to correctly reproduce binaural sound and keyboard vibrations. The library has potential to support experimental research about the psycho-physical, cognitive and experiential effects caused by the keyboard’s multimodal feedback in musicians and other users, or, outside the laboratory, to enable an immersive personal piano performance. -
Basic Music Course: Keyboard Course
B A S I C M U S I C C O U R S E KEYBOARD course B A S I C M U S I C C O U R S E KEYBOARD COURSE Published by The Church of Jesus Christ of Latter-day Saints Salt Lake City, Utah © 1993 by Intellectual Reserve, Inc. All rights reserved Printed in the United States of America Updated 2004 English approval: 4/03 CONTENTS Introduction to the Basic Music Course .....1 “In Humility, Our Savior”........................28 Hymns to Learn ......................................56 The Keyboard Course..................................2 “Jesus, the Very Thought of Thee”.........29 “How Gentle God’s Commands”............56 Purposes...................................................2 “Jesus, Once of Humble Birth”..............30 “Jesus, the Very Thought of Thee”.........57 Components .............................................2 “Abide with Me!”....................................31 “Jesus, Once of Humble Birth”..............58 Advice to Students ......................................3 Finding and Practicing the White Keys ......32 “God Loved Us, So He Sent His Son”....60 A Note of Encouragement...........................4 Finding Middle C.....................................32 Accidentals ................................................62 Finding and Practicing C and F...............34 Sharps ....................................................63 SECTION 1 ..................................................5 Finding and Practicing A and B...............35 Flats........................................................63 Getting Ready to Play the Piano -
Computer Mediated Music Production: a Study of Abstraction and Activity
Computer mediated music production: A study of abstraction and activity by Matthew Duignan A thesis for the degree of Doctor of Philosophy in Computer Science. Victoria University of Wellington 2008 Abstract Human Computer Interaction research has a unique challenge in under- standing the activity systems of creative professionals, and designing the user-interfaces to support their work. In these activities, the user is involved in the process of building and editing complex digital artefacts through a process of continued refinement, as is seen in computer aided architecture, design, animation, movie-making, 3D modelling, interactive media (such as shockwave-flash), as well as audio and music production. This thesis exam- ines the ways in which abstraction mechanisms present in music production systems interplay with producers’ activity through a collective case study of seventeen professional producers. From the basis of detailed observations and interviews we examine common abstractions provided by the ubiqui- tous multitrack-mixing metaphor and present design implications for future systems. ii Acknowledgements I would like to thank my supervisors Robert Biddle and James Noble for their endless hours of guidance and feedback during this process, and most of all for allowing me to choose such a fun project. Michael Norris and Lissa Meridan from the Victoria University music department were also invaluable for their comments and expertise. I would also like to thank Alan Blackwell for taking the time to discuss my work and provide valuable advice. I am indebted to all of my participants for the great deal of time they selflessly offered, and the deep insights they shared into their professional world. -
Toward a New Organology: Instruments of Music and Science Author(S): John Tresch and Emily I
Toward a New Organology: Instruments of Music and Science Author(s): John Tresch and Emily I. Dolan Source: Osiris, Vol. 28, No. 1, Music, Sound, and the Laboratory from 1750–1980 (January 2013), pp. 278-298 Published by: The University of Chicago Press on behalf of The History of Science Society Stable URL: http://www.jstor.org/stable/10.1086/671381 . Accessed: 05/01/2014 19:07 Your use of the JSTOR archive indicates your acceptance of the Terms & Conditions of Use, available at . http://www.jstor.org/page/info/about/policies/terms.jsp . JSTOR is a not-for-profit service that helps scholars, researchers, and students discover, use, and build upon a wide range of content in a trusted digital archive. We use information technology and tools to increase productivity and facilitate new forms of scholarship. For more information about JSTOR, please contact [email protected]. The University of Chicago Press and The History of Science Society are collaborating with JSTOR to digitize, preserve and extend access to Osiris. http://www.jstor.org This content downloaded from 165.123.34.86 on Sun, 5 Jan 2014 19:07:08 PM All use subject to JSTOR Terms and Conditions Toward a New Organology: Instruments of Music and Science by John Tresch* and Emily I. Dolan† ABSTRACT The Renaissance genre of organological treatises inventoried the forms and func- tions of musical instruments. This article proposes an update and expansion of the organological tradition, examining the discourses and practices surrounding both musical and scientifi c instruments. Drawing on examples from many periods and genres, we aim to capture instruments’ diverse ways of life. -
The Harpsichord: a Research and Information Guide
View metadata, citation and similar papers at core.ac.uk brought to you by CORE provided by Illinois Digital Environment for Access to Learning and Scholarship Repository THE HARPSICHORD: A RESEARCH AND INFORMATION GUIDE BY SONIA M. LEE DISSERTATION Submitted in partial fulfillment of the requirements for the degree of Doctor of Musical Arts in Music with a concentration in Performance and Literature in the Graduate College of the University of Illinois at Urbana-Champaign, 2012 Urbana, Illinois Doctoral Committee: Professor Charlotte Mattax Moersch, Chair and Co-Director of Research Professor Emeritus Donald W. Krummel, Co-Director of Research Professor Emeritus John W. Hill Associate Professor Emerita Heidi Von Gunden ABSTRACT This study is an annotated bibliography of selected literature on harpsichord studies published before 2011. It is intended to serve as a guide and as a reference manual for anyone researching the harpsichord or harpsichord related topics, including harpsichord making and maintenance, historical and contemporary harpsichord repertoire, as well as performance practice. This guide is not meant to be comprehensive, but rather to provide a user-friendly resource on the subject. ii ACKNOWLEDGEMENTS I would like to express my deepest gratitude to my dissertation advisers Professor Charlotte Mattax Moersch and Professor Donald W. Krummel for their tremendous help on this project. My gratitude also goes to the other members of my committee, Professor John W. Hill and Professor Heidi Von Gunden, who shared with me their knowledge and wisdom. I am extremely thankful to the librarians and staff of the University of Illinois Library System for assisting me in obtaining obscure and rare publications from numerous libraries and archives throughout the United States and abroad.