Abstract
The mechanical properties of tissue are inextricably linked to biological form and function. They are important from the
molecular to the organ scales, and are implicated in healthy development, tissue regeneration and manifestation of disease.
Optical coherence elastography is emerging as a promising method to characterize tissue mechanics. This thesis presents
the development of new methods and techniques to improve the accuracy, resolution and contrast of optical coherence
elastography, and establish it as a platform for fundamental and clinical research. The platform may offer a window to new
discoveries on the role of mechanics in tissue development, organization and pathogenesis.
molecular to the organ scales, and are implicated in healthy development, tissue regeneration and manifestation of disease.
Optical coherence elastography is emerging as a promising method to characterize tissue mechanics. This thesis presents
the development of new methods and techniques to improve the accuracy, resolution and contrast of optical coherence
elastography, and establish it as a platform for fundamental and clinical research. The platform may offer a window to new
discoveries on the role of mechanics in tissue development, organization and pathogenesis.
Original language | English |
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Qualification | Doctor of Philosophy |
Awarding Institution |
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Supervisors/Advisors |
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Award date | 10 Jan 2018 |
DOIs | |
Publication status | Unpublished - 2018 |