An extended pulse wave propagation model to predict (patho-)physiological coronary pressure and flow patterns

F.N. Vosse, van de; A. van der Horst; M.C.M. Rutten

An extended pulse wave propagation model to predict (patho-)physiological coronary pressure and flow patterns

F.N. Vosse, van de, A. van der Horst, M.C.M. Rutten

Research output: Chapter in Book/Report/Conference proceeding › Conference contribution › Academic › peer-review

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Abstract

A patient-specific model describing the primary relations between the cardiac muscle contraction and coronary circulation might be useful for interpreting coronary hemodynamics and deciding on medical treatment in case multiple types of coronary circulatory disease are present. For this purpose we present the use of a microstructure-based heart contraction model and a micro-structure based fiber reinforced arterial wall model as the basis of a 1D wave propagation model to describe coronary pressure and flow waves. We conclude that this extended pulse wave propagation model adequately can predict coronary hemodynamics in both normal and diseased state based on patient-specific clinical data.

Original language	English
Title of host publication	3rd International Conference on Computational and Mathematical Biomedical Engineering,
Editors	P. Nithiarasu, R. Löhner
Publisher	CMBE
Pages	261-264
ISBN (Print)	978-0-9562914-2-4
Publication status	Published - 2013
Event	3rd International Conference on Computational & Mathematical Biomedical Engineering (CMBE13) - City University of Hong Kong, Hong Kong, China Duration: 16 Dec 2013 → 18 Dec 2013 http://www.compbiomed.net/2013/

Conference

Conference	3rd International Conference on Computational & Mathematical Biomedical Engineering (CMBE13)
Abbreviated title	CMBE13
Country/Territory	China
City	Hong Kong
Period	16/12/13 → 18/12/13
Internet address	http://www.compbiomed.net/2013/

Cite this

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title = "An extended pulse wave propagation model to predict (patho-)physiological coronary pressure and flow patterns",

abstract = "A patient-specific model describing the primary relations between the cardiac muscle contraction and coronary circulation might be useful for interpreting coronary hemodynamics and deciding on medical treatment in case multiple types of coronary circulatory disease are present. For this purpose we present the use of a microstructure-based heart contraction model and a micro-structure based fiber reinforced arterial wall model as the basis of a 1D wave propagation model to describe coronary pressure and flow waves. We conclude that this extended pulse wave propagation model adequately can predict coronary hemodynamics in both normal and diseased state based on patient-specific clinical data.",

author = "{Vosse, van de}, F.N. and {van der Horst}, A. and M.C.M. Rutten",

year = "2013",

language = "English",

isbn = "978-0-9562914-2-4",

pages = "261--264",

editor = "P. Nithiarasu and R. L{\"o}hner",

booktitle = "3rd International Conference on Computational and Mathematical Biomedical Engineering,",

publisher = "CMBE",

note = "3rd International Conference on Computational & Mathematical Biomedical Engineering (CMBE13), CMBE13 ; Conference date: 16-12-2013 Through 18-12-2013",

url = "http://www.compbiomed.net/2013/",

}

Vosse, van de, FN , van der Horst, A & Rutten, MCM 2013, An extended pulse wave propagation model to predict (patho-)physiological coronary pressure and flow patterns. in P Nithiarasu & R Löhner (eds), 3rd International Conference on Computational and Mathematical Biomedical Engineering,. CMBE, pp. 261-264, 3rd International Conference on Computational & Mathematical Biomedical Engineering (CMBE13), Hong Kong, China, 16/12/13.

An extended pulse wave propagation model to predict (patho-)physiological coronary pressure and flow patterns. / Vosse, van de, F.N.; van der Horst, A.; Rutten, M.C.M.
3rd International Conference on Computational and Mathematical Biomedical Engineering,. ed. / P. Nithiarasu; R. Löhner. CMBE, 2013. p. 261-264.

Research output: Chapter in Book/Report/Conference proceeding › Conference contribution › Academic › peer-review

TY - GEN

T1 - An extended pulse wave propagation model to predict (patho-)physiological coronary pressure and flow patterns

AU - Vosse, van de, F.N.

AU - van der Horst, A.

AU - Rutten, M.C.M.

PY - 2013

Y1 - 2013

N2 - A patient-specific model describing the primary relations between the cardiac muscle contraction and coronary circulation might be useful for interpreting coronary hemodynamics and deciding on medical treatment in case multiple types of coronary circulatory disease are present. For this purpose we present the use of a microstructure-based heart contraction model and a micro-structure based fiber reinforced arterial wall model as the basis of a 1D wave propagation model to describe coronary pressure and flow waves. We conclude that this extended pulse wave propagation model adequately can predict coronary hemodynamics in both normal and diseased state based on patient-specific clinical data.

AB - A patient-specific model describing the primary relations between the cardiac muscle contraction and coronary circulation might be useful for interpreting coronary hemodynamics and deciding on medical treatment in case multiple types of coronary circulatory disease are present. For this purpose we present the use of a microstructure-based heart contraction model and a micro-structure based fiber reinforced arterial wall model as the basis of a 1D wave propagation model to describe coronary pressure and flow waves. We conclude that this extended pulse wave propagation model adequately can predict coronary hemodynamics in both normal and diseased state based on patient-specific clinical data.

M3 - Conference contribution

SN - 978-0-9562914-2-4

SP - 261

EP - 264

BT - 3rd International Conference on Computational and Mathematical Biomedical Engineering,

A2 - Nithiarasu, P.

A2 - Löhner, R.

PB - CMBE

T2 - 3rd International Conference on Computational & Mathematical Biomedical Engineering (CMBE13)

Y2 - 16 December 2013 through 18 December 2013

ER -

An extended pulse wave propagation model to predict (patho-)physiological coronary pressure and flow patterns

Abstract

Conference

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