Multiscale Design for the Additive Manufacture of Medical Devices

Lauren Thomas-Seale; Sanjeevan Kanagalingam; David Shaw; Andrew Triantaphyllou; Khamis Essa; Jackson Kirkman-Brown; Moataz Attallah; Daniel Espino; Duncan Shepherd

Multiscale Design for the Additive Manufacture of Medical Devices

Lauren Thomas-Seale, Sanjeevan Kanagalingam, David Shaw, Andrew Triantaphyllou, Khamis Essa, Jackson Kirkman-Brown, Moataz Attallah, Daniel Espino, Duncan Shepherd

Research output: Contribution to conference (unpublished) › Poster

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Abstract

The essence of human development is multiscale manufacture; enabling the creation of complex tissue and organs, whose micro, biological and chemical structures seamlessly interact between their dimensional levels. The capabilities of additive
manufacture (AM) to create smart, functionally graded and composite materials [1-3], has expanded the remit of design for AM (DfAM) from geometric homogeneous forms, to encompass compositions, heterogeneity and process parameters. The objective of this research is to use insight gained from human development analogies to inspire DfAM of multiscale materials with the overarching aim of designing medical devices with enhanced functionality.

Original language	English
Publication status	Published - Jul 2017
Event	The 23rd Congress of the European Society of Biomechanics - Seville, Spain Duration: 2 Jul 2017 → 5 Jul 2017

Conference

Conference	The 23rd Congress of the European Society of Biomechanics
Country/Territory	Spain
City	Seville
Period	2/07/17 → 5/07/17

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Multiscale Design for the Additive Manufacture of Medical DevicesOther version, 6.33 MBLicence: None: All rights reserved

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title = "Multiscale Design for the Additive Manufacture of Medical Devices",

abstract = "The essence of human development is multiscale manufacture; enabling the creation of complex tissue and organs, whose micro, biological and chemical structures seamlessly interact between their dimensional levels. The capabilities of additivemanufacture (AM) to create smart, functionally graded and composite materials [1-3], has expanded the remit of design for AM (DfAM) from geometric homogeneous forms, to encompass compositions, heterogeneity and process parameters. The objective of this research is to use insight gained from human development analogies to inspire DfAM of multiscale materials with the overarching aim of designing medical devices with enhanced functionality. ",

author = "Lauren Thomas-Seale and Sanjeevan Kanagalingam and David Shaw and Andrew Triantaphyllou and Khamis Essa and Jackson Kirkman-Brown and Moataz Attallah and Daniel Espino and Duncan Shepherd",

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T1 - Multiscale Design for the Additive Manufacture of Medical Devices

AU - Thomas-Seale, Lauren

AU - Kanagalingam, Sanjeevan

AU - Shaw, David

AU - Triantaphyllou, Andrew

AU - Essa, Khamis

AU - Kirkman-Brown, Jackson

AU - Attallah, Moataz

AU - Espino, Daniel

AU - Shepherd, Duncan

PY - 2017/7

Y1 - 2017/7

N2 - The essence of human development is multiscale manufacture; enabling the creation of complex tissue and organs, whose micro, biological and chemical structures seamlessly interact between their dimensional levels. The capabilities of additivemanufacture (AM) to create smart, functionally graded and composite materials [1-3], has expanded the remit of design for AM (DfAM) from geometric homogeneous forms, to encompass compositions, heterogeneity and process parameters. The objective of this research is to use insight gained from human development analogies to inspire DfAM of multiscale materials with the overarching aim of designing medical devices with enhanced functionality.

AB - The essence of human development is multiscale manufacture; enabling the creation of complex tissue and organs, whose micro, biological and chemical structures seamlessly interact between their dimensional levels. The capabilities of additivemanufacture (AM) to create smart, functionally graded and composite materials [1-3], has expanded the remit of design for AM (DfAM) from geometric homogeneous forms, to encompass compositions, heterogeneity and process parameters. The objective of this research is to use insight gained from human development analogies to inspire DfAM of multiscale materials with the overarching aim of designing medical devices with enhanced functionality.

M3 - Poster

T2 - The 23rd Congress of the European Society of Biomechanics

Y2 - 2 July 2017 through 5 July 2017

ER -

Multiscale Design for the Additive Manufacture of Medical Devices

Abstract

Conference

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