Title Information
Title
Towards Automated Additive Manufacturing of Bio-Tubes
Name: Personal
Name Part
Manning, Kali L
Role
Role Term: Text
creator
Name: Personal
Name Part
Morgan, Jeffrey
Role
Role Term: Text
Advisor
Name: Personal
Name Part
Schell, Jacquelyn
Role
Role Term: Text
Reader
Name: Personal
Name Part
Hoffman-Kim, Diane
Role
Role Term: Text
Reader
Name: Personal
Name Part
Tripathi, Anubhav
Role
Role Term: Text
Reader
Name: Personal
Name Part
Waller, Kimberly
Role
Role Term: Text
Reader
Name: Corporate
Name Part
Brown University. Biology and Medicine: Biomedical Engineering
Role
Role Term: Text
sponsor
Origin Information
Copyright Date
2020
Physical Description
Extent
xv, 125 p.
digitalOrigin
born digital
Note: thesis
Thesis (Ph. D.)--Brown University, 2020
Genre (aat)
theses
Abstract
While many strides have been made in the field of tissue engineering since its inception, the need for a physiologically relevant biological substitute remains unmet. One facet of tissue engineering that still needs to be developed is manufacturing schemes for human tissue products. Currently, a manufacturing gap exists that makes clinical translation of products challenging. Manufacturing is an essential component of any commercial product since it produces products faster, more reproducibly, and more uniformly of a higher quality than if manually constructed. Automation is a crucial aspect of manufacturing that greatly assists in producing products of a higher quality at a quicker speed while reducing human error. Automated biofabrication methods have only recently begun to be investigated, however, they are a critical step in the advancement of human tissue products and their eventual clinical translation. Specifically, there is a need for a simple self-aligning automated technique using standard components readily available and easily translatable into existing automated schemes. The work presented herein develops a novel method for the biofabrication of bio-tubes using automated additive manufacturing techniques. The thesis is presented in three sections which aim to (1) develop a new microtissue manipulation platform for the fabrication of bio-tubes, (2) automate the new method and develop a real-time quality control step using vision recognition, and (3) discuss the theory behind fabricating a vascular unit containing a blood vessel-like tube that branches into a perfusable capillary tissue bed, an application of the developed automated method. Completion of these aims is a step toward creating automated manufacturing schemes for human tissue products and their eventual translation into clinical settings.
Subject
Topic
tissue engineering
Subject
Topic
biofabrication
Subject
Topic
Additive Manufacturing
Subject
Topic
Microtissue Manipulation
Language
Language Term (ISO639-2B)
English
Record Information
Record Content Source (marcorg)
RPB
Record Creation Date (encoding="iso8601")
20200720
Access Condition: rights statement (href="http://rightsstatements.org/vocab/InC/1.0/")
In Copyright
Access Condition: restriction on access
Collection is open for research.
Type of Resource (primo)
dissertations