This application claims priority under U.S.C. 119 Provisional Application 61/054,665, filed on 20 May 2008.
This invention describes a device for the control of electronic musical instruments such as, but not limited to, MIDI (Musical Instrument Digital Interface) control or analog control voltage. Since the early 1960's electronic musical instruments have been controlled in forms familiar to conventional acoustic or electro-acoustic instruments such as an organ keyboard. This is a self limiting implementation that hinders use of electronic instruments, somewhat precluding use in microtonal and atonal music. Additionally, the keyboard paradigm limits electronic music exploration to those skilled in keyboard performance, music theory, or more broadly those with the motor skills required to operate a keyboard.
This invention describes a system of total immersion technology, in which the musician is comfortably seated, and uses natural body motion to control aspects such as pitch and timbre. Freed from the requirements of keyboarding and attention to such traditional musical constraints as pitch and keys, the performer is able to become more intuitively in touch with the music and performance. Additionally those who, due to such constraints as medical conditions, are unable to physically perform on a traditional keyboard will be able to use this performance device. It is the intention of the inventors to develop this for use with physically impaired potential musicians.
Electronic musical instruments have been developed for the realization, performance and recording of music using electronic systems. One family of these instruments, the electronic music synthesizer, was developed to create sound electronically, rather than reproduce existing natural sounds. During the 1960s, electronic synthesizers were developed, and used as signal sources and modifiers in tape studios, and as instruments in their own right. Eventually, the term “synthesizer” grew to include a broader definition of instrument, including those that create the sound either electronically or algorithmically in software, as well as those that play and modify a pre-recorded sound—so called “samplers” and “ROMplers”. Over time, synthesizers became packaged with organ style keyboards, and became the domain of keyboard players. Because of this shift to the keyboard paradigm, there are two groups of people who are precluded from musical expression—those who are not trained, and those who lack the fine motor skills. The intended beneficiaries of this invention include those two groups.
1) A MIDI controller built into a sofa—only detects weight shift. No patent application. See http://musicthing.blogspot.com/2005/07/sofa-as-midi-controller.html
2) U.S. Pat. No. 5,189,240: Breath controller for musical instruments
This is a non-keyboard controller that allows synthesizer parameters to be controlled by the flow of breath from the mouth.
3) U.S. Pat. No. 6,018,118: System and method for controlling a music synthesizer, Smith et. Al controls an electronic music synthesizer by mapping transducers affixed to the body or clothing of a free-standing performance artist to parameters in an electronic musical instrument.
4) “Gesture Chair” as described in “Dual-Use Technologies for Electronic Music Controllers: A Personal Perspective”, Joseph A. Paradiso, Proceedings of the 2003 Conference on New Interfaces for Musical Expression (NIME-03), Montreal, Canada NIME03-228
This gesture chair tracks the movement of the performer's arms in free space as a means to control an electronic musical instrument.
No other prior art found.
In its purest form, this invention is a musical instrument controller constructed on the platform of a chair. This is done with the intention of supporting and relaxing the performer while presenting numerous opportunities for control. In the present invention, multiple degrees of motion are supported, which in turn control various aspects of electronic music production.
It is one object of the present invention to provide an arrangement for detecting the motion of human body, or portions thereof, and convert that motion, position, velocity, or acceleration to a signal such as an electrical or fiber optic signal for the control of parameters of an electronic music synthesizer.
Preferably the present invention is built into a chair.
Preferably the arms are independently anchored at one end and swivel.
Preferably the arms are independently able to tilt up and down.
Preferably individual transducers are mounted at the far end of the chair arms, utilizing X-Y or X-Y-Z joysticks and thumbwheels.
Preferably the chair body swivels left and right.
Preferably the chair tilts forward and backwards.
Preferably all above listed motions are converted to a control signal for modifying one or more characteristics of sound or music.
Preferably foot pedals are placed in front of the chair for creation of additional control signals.
Preferably transducers detect motion of the head of the person using the present invention.
Preferably all motions of the individual portions are sensed and transmitted to an electronic music synthesizer.
Preferably the electronic music synthesizer is a so-called hardware synthesizer, or synthesizer software operating on a computer device.
Preferably the sensors detect position, motion, velocity, or acceleration of the components.
The control actuators available to the user include, but are not limited to:
The motion of each actuator independently controls an input to, or function of, an electronic instrument such as pitch, patch (sound) selection, filter resonance and corner frequency. These instruments include hardware and software synthesizers and sample players. This control can be accomplished by such methods including, but not limited to control voltages, MIDI controls, and over a communications protocol such as USB, FireWire, bluetooth, WiFi, Ethernet, serial, parallel, etc.
Per
Referencing
Referencing
Arms: Each arm is hinged to swing to the left and right (
Arm Ends: At the end of each arm is fixed a joystick type X-Y or X-Y-Z controller (
Additionally, mounted on the end of the arm in a convenient location, including but not limited to the body of the joystick, is a thumbwheel type controller, also controlling an independent parameter.
Body Swivel: Chair body is able to swivel in the horizontal plane, and motion or position of that swivel is detected and converted to a signal for control of the electronic musical instrument.
Body Tilt: Chair body and back are able to tilt in the vertical plane, and motion or position of that tilt is detected and converted to a signal for control of the electronic musical instrument.
Left and right foot pedal On floor or stand in front of chair operator actuates one or more foot one or two dimensional foot controllers, each actuating separate control signals
Head tilt Additional sensors, in a similar fashion, convert head tilt to control signals.
Head twist Additional sensors, in a similar fashion, convert head twist to control signals.
Motion velocity and acceleration All controls may be comprised of elector-mechanical transducers including but not limited to pulley and potentiometer, accelerometer, or inclinometer. Sensor signal may be based on static position, velocity, or acceleration.
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