Bernhard Jakoby

Prof. Bernhard Jakoby

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Research Focus & Metrics

Academic Career Length

32Years (1995-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 December 1997 in Smart Materials and Structures
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Journal Article
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BJBernhard Jakoby
Bernhard Jakoby
MVMichael J Vellekoop
Michael J Vellekoop

1 June 2005 in Sensors and Actuators A: Physical
Verified
Journal Article
Closed access
AAA. Agoston
A. Agoston
CÖC. Ötsch
C. Ötsch
BJBernhard Jakoby
Bernhard Jakoby

1 June 1998 in Sensors and Actuators A: Physical
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Journal Article
Closed access
BJBernhard Jakoby
Bernhard Jakoby
MVMichael J. Vellekoop
Michael J. Vellekoop

28 December 2009 in IEEE Transactions on Ultrasonics, Ferroelectrics, and Frequency Control
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Journal Article
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BJBernhard Jakoby
Bernhard Jakoby
RBRoman Beigelbeck
Roman Beigelbeck
FKFranz Keplinger
Franz Keplinger
FLFrieder Lucklum
Frieder Lucklum
ANAlexander Niedermayer
Alexander Niedermayer
BWBernhard Weiss
Bernhard Weiss
This paper reviews our recent work on vibrating sensors for the physical properties of fluids, particularly viscosity and density. Several device designs and the associated properties, specifically with respect to the sensed rheological domain and the onset of non-Newtonian behavior, are discussed.

1 September 2005 in Sensors and Actuators A: Physical
Verified
Journal Article
Closed access
AAA. Agoston
A. Agoston
FKFranz Keplinger
Franz Keplinger
BJBernhard Jakoby
Bernhard Jakoby

2 October 2013 in Biomedical Optics Express
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Journal Article
Open access
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AHArmin Hochreiner
Armin Hochreiner
JBJohannes Bauer-Marschallinger
Johannes Bauer-Marschallinger
PBPeter Burgholzer
Peter Burgholzer
BJBernhard Jakoby
Bernhard Jakoby
TBThomas Berer
Thomas Berer
In photoacoustic imaging the ultrasonic signals are usually detected by contacting transducers. For some applications contact with the tissue should be avoided. As alternatives to contacting transducers interferometric means can be used to acquire photoacoustic signals remotely. In this paper we report on non-contact three and two dimensional photoacoustic imaging using an optical fiber-based Mach-Zehnder interferometer. A detection beam is transmitted through an optical fiber network onto the surface of the specimen. Back reflected light is collected and coupled into the same optical fiber. To achieve a high signal/noise ratio the reflected light is amplified by means of optical amplification with an erbium doped fiber amplifier before demodulation. After data acquisition the initial pressure distribution is reconstructed by a Fourier domain reconstruction algorithm. We present remote photoacoustic imaging of a tissue mimicking phantom and on chicken skin.