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172 Works

Media 9: Musical instrument recordings made with a fiber Fabry-Perot cavity: photonic guitar pickup

Nicholas Ballard, Daniel Paz-Soldan, Peter Kung & Hans-Peter Loock
Originally published in Applied Optics on 10 April 2010 (ao-49-11-2198)

Musical instrument recordings made with a fiber Fabry-Perot cavity: photonic guitar pickup

Nicholas Ballard, Daniel Paz-Soldan, Peter Kung & Hans-Peter Loock
A 1 cm long, low-finesse fiber-optic cavity was used as a transducer for the vibrations of the soundboard of an acoustic guitar and of a violin. The reflected light is detected and then amplified and recorded using conventional audio instrumentation. The fiber-optic pickup is found to have a high response range in both amplitude (up to 100 μm displacement) and audio frequency (DC to 20 kHz) and good linearity up to a displacement of 225...

Musical instrument recordings made with a fiber Fabry-Perot cavity: photonic guitar pickup

Nicholas Ballard, Daniel Paz-Soldan, Peter Kung & Hans-Peter Loock
A 1 cm long, low-finesse fiber-optic cavity was used as a transducer for the vibrations of the soundboard of an acoustic guitar and of a violin. The reflected light is detected and then amplified and recorded using conventional audio instrumentation. The fiber-optic pickup is found to have a high response range in both amplitude (up to 100 μm displacement) and audio frequency (DC to 20 kHz) and good linearity up to a displacement of 225...

Media 9: Musical instrument recordings made with a fiber Fabry-Perot cavity: photonic guitar pickup

Nicholas Ballard, Daniel Paz-Soldan, Peter Kung & Hans-Peter Loock
Originally published in Applied Optics on 10 April 2010 (ao-49-11-2198)

Media 8: Musical instrument recordings made with a fiber Fabry-Perot cavity: photonic guitar pickup

Nicholas Ballard, Daniel Paz-Soldan, Peter Kung & Hans-Peter Loock
Originally published in Applied Optics on 10 April 2010 (ao-49-11-2198)

Media 8: Musical instrument recordings made with a fiber Fabry-Perot cavity: photonic guitar pickup

Nicholas Ballard, Daniel Paz-Soldan, Peter Kung & Hans-Peter Loock
Originally published in Applied Optics on 10 April 2010 (ao-49-11-2198)

Media 7: Musical instrument recordings made with a fiber Fabry-Perot cavity: photonic guitar pickup

Nicholas Ballard, Daniel Paz-Soldan, Peter Kung & Hans-Peter Loock
Originally published in Applied Optics on 10 April 2010 (ao-49-11-2198)

Media 7: Musical instrument recordings made with a fiber Fabry-Perot cavity: photonic guitar pickup

Nicholas Ballard, Daniel Paz-Soldan, Peter Kung & Hans-Peter Loock
Originally published in Applied Optics on 10 April 2010 (ao-49-11-2198)

Media 6: Musical instrument recordings made with a fiber Fabry-Perot cavity: photonic guitar pickup

Nicholas Ballard, Daniel Paz-Soldan, Peter Kung & Hans-Peter Loock
Originally published in Applied Optics on 10 April 2010 (ao-49-11-2198)

Media 6: Musical instrument recordings made with a fiber Fabry-Perot cavity: photonic guitar pickup

Nicholas Ballard, Daniel Paz-Soldan, Peter Kung & Hans-Peter Loock
Originally published in Applied Optics on 10 April 2010 (ao-49-11-2198)

Media 5: Musical instrument recordings made with a fiber Fabry-Perot cavity: photonic guitar pickup

Nicholas Ballard, Daniel Paz-Soldan, Peter Kung & Hans-Peter Loock
Originally published in Applied Optics on 10 April 2010 (ao-49-11-2198)

Media 5: Musical instrument recordings made with a fiber Fabry-Perot cavity: photonic guitar pickup

Nicholas Ballard, Daniel Paz-Soldan, Peter Kung & Hans-Peter Loock
Originally published in Applied Optics on 10 April 2010 (ao-49-11-2198)

Media 4: Musical instrument recordings made with a fiber Fabry-Perot cavity: photonic guitar pickup

Nicholas Ballard, Daniel Paz-Soldan, Peter Kung & Hans-Peter Loock
Originally published in Applied Optics on 10 April 2010 (ao-49-11-2198)

Media 4: Musical instrument recordings made with a fiber Fabry-Perot cavity: photonic guitar pickup

Nicholas Ballard, Daniel Paz-Soldan, Peter Kung & Hans-Peter Loock
Originally published in Applied Optics on 10 April 2010 (ao-49-11-2198)

Media 3: Musical instrument recordings made with a fiber Fabry-Perot cavity: photonic guitar pickup

Nicholas Ballard, Daniel Paz-Soldan, Peter Kung & Hans-Peter Loock
Originally published in Applied Optics on 10 April 2010 (ao-49-11-2198)

Media 3: Musical instrument recordings made with a fiber Fabry-Perot cavity: photonic guitar pickup

Nicholas Ballard, Daniel Paz-Soldan, Peter Kung & Hans-Peter Loock
Originally published in Applied Optics on 10 April 2010 (ao-49-11-2198)

Media 2: Musical instrument recordings made with a fiber Fabry-Perot cavity: photonic guitar pickup

Nicholas Ballard, Daniel Paz-Soldan, Peter Kung & Hans-Peter Loock
Originally published in Applied Optics on 10 April 2010 (ao-49-11-2198)

Media 2: Musical instrument recordings made with a fiber Fabry-Perot cavity: photonic guitar pickup

Nicholas Ballard, Daniel Paz-Soldan, Peter Kung & Hans-Peter Loock
Originally published in Applied Optics on 10 April 2010 (ao-49-11-2198)

Media 1: Musical instrument recordings made with a fiber Fabry-Perot cavity: photonic guitar pickup

Nicholas Ballard, Daniel Paz-Soldan, Peter Kung & Hans-Peter Loock
Originally published in Applied Optics on 10 April 2010 (ao-49-11-2198)

Media 1: Musical instrument recordings made with a fiber Fabry-Perot cavity: photonic guitar pickup

Nicholas Ballard, Daniel Paz-Soldan, Peter Kung & Hans-Peter Loock
Originally published in Applied Optics on 10 April 2010 (ao-49-11-2198)

Media 1: Use of spatial spectrum of light to recover three-dimensional holographic nature

Frank C. Fan, Sam Choi & C. C. Jiang
Originally published in Applied Optics on 10 May 2010 (ao-49-14-2676)

Media 1: Use of spatial spectrum of light to recover three-dimensional holographic nature

Frank C. Fan, Sam Choi & C. C. Jiang
Originally published in Applied Optics on 10 May 2010 (ao-49-14-2676)

Use of spatial spectrum of light to recover three-dimensional holographic nature

Frank C. Fan, Sam Choi & C. C. Jiang
Two new concepts are deduced—those of hoxels and spatial spectrum by vector expression of four-dimensional Fourier transform integrals of the wave function or probability amplitude of any quantized energy probability distribution sampled by photons of this nature. Spatial spectrum collecting and recovering processes through hoxels by camera–projector arrays and holographic functional screens are proposed in detail to recover this three-dimensional holographic nature as a reinvention of holography. A real-time holographic display by simple aggregation of...

Use of spatial spectrum of light to recover three-dimensional holographic nature

Frank C. Fan, Sam Choi & C. C. Jiang
Two new concepts are deduced—those of hoxels and spatial spectrum by vector expression of four-dimensional Fourier transform integrals of the wave function or probability amplitude of any quantized energy probability distribution sampled by photons of this nature. Spatial spectrum collecting and recovering processes through hoxels by camera–projector arrays and holographic functional screens are proposed in detail to recover this three-dimensional holographic nature as a reinvention of holography. A real-time holographic display by simple aggregation of...

Media 1: Calibration of spherical reference surfaces for Fizeau interferometry: a comparative study of methods

Jan Burke & David S. Wu
Originally published in Applied Optics on 01 November 2010 (ao-49-31-6014)

Resource Types

  • Audiovisual
    98
  • Collection
    58
  • Dataset
    16

Publication Year

  • 2010
    172

Data Centers

  • figshare Academic Research System
    172