Prof. Mick Morris
Prof. Michael Morris is a graduate of Liverpool University in 1982 (BSc and PhD). He was a post-doctoral fellow at Imperial College in London before moving to Strathclyde University as a lecturer. He then took an ICI endowed lectureship at Cardiff University for research into surface science and catalysis, which was followed by a move to ICI as a research scientist. He was appointed to a post in Materials Chemistry at UCC in 1993 and while there held the Chair of Inorganic Chemistry and was Head of the Department of Chemistry at the university. In 2015, he was appointed Academic Director of AMBER and Professor of Surface and Interface Engineering at the School of Chemistry, Trinity College Dublin. Prof. Morris’s work largely focuses on self-assembly of materials in thin films. This has been geared towards production of mesoporous films and recently block-polymer microphase separation to form periodic arrangements. These periodic structures can be used to engineer surfaces for applications such as circuit elements in integrated circuitry, manipulation of light, self-cleaning surfaces and antimicrobial packaging.
Prof. Morris’s work in AMBER includes collaboration with Intel on the development of new technology for the manufacture of logic/memory circuitry. He also has several engagements with other companies based on his experience of surface engineering and materials science, e.g. DePuy (surface coatings for implant components) and Merck Millipore (new membrane materials) and also collaborates with Henkel, Alcatel Lucent and other companies. Prof Morris is a founder of Glantreo, a SME spin out for Cork, and maintains links in developing novel stationary phase materials for chromatography applications.
Dr. Ramesh Babu Padamati
Prof. Werner Blau
Prof. John J. Boland
Prof Conor Buckley
Prof. J.M.D. Coey
Prof Paula Colavita
Prof. Jonathan Coleman
Prof. Graham Cross
Prof. John Donegan
Prof. Georg S. Duesberg
Prof Garry Duffy
Prof James Gleeson
Prof. Yurii Gun’ko
Prof. Anne Marie Healy
Prof David Hoey
Prof. Justin D. Holmes
Prof Paul Hurley
Prof Nathan Jackson
Dr. Lewys Jones
Prof. Daniel Kelly
Dr. Ed Lavelle
Dr Rocco Lupoi
Prof. Mike Lyons
Dr. Aidan McDonald
Dr. Parvaneh Mokarian-Tabari
Prof. Mick Morris
Dr. Bruce Murphy
Prof. Valeria Nicolosi
3D printing of fibrous electroconductive biomaterials with controlled architectures for peripheral n
The position will be based with the Buckley Lab (www.buckleylab.eu) within the Advanced Materials and Bioengineering Research (AMBER) centre. Prof. Buckley leads a multidisciplinary research group in the Trinity Centre for Biomedical Engineering at Trinity College Dublin. The goal of the Buckley lab is to develop novel biomaterial and cell-based strategies to regenerate or repair damaged tissues to restore function using minimally invasive strategies (MIS).
Peripheral nerve injury remains a major clinical problem. Autografts are the current ‘gold standard’ but are hampered by limited availability of donor tissue with poor prognosis for functional recovery at both the donor and recipient sites. As a result, new approaches are currently being investigated to develop artificial nerve grafts which mimic the properties of autologous grafts. Additive manufacturing (AM) techniques such as 3D bioprinting (3DBP) offers exciting new opportunities and horizons to engineer nerve guidance conduits (NGCs) that more closely match the composition and structure of native nerve tissue. These approaches facilitate precise control over the external and internal microarchitecture geometry. In the context of developing engineered nerve tissue AM offers the added ability to incorporate drug delivery systems with tailorable spatial and temporal release profiles of individual drugs. Similarly, following peripheral nerve injury, the transfer of electrical signals across a damaged nerve is inhibited, resulting in degeneration of the distal nerve segment. Printing offers the potential to create specific geometries with defined micropatterns as well as incorporating electroconductive biomaterials to provide direct electrical activation to enhance tissue repair, enhance cell function and alignment. Applying electrical stimuli may enhance the regeneration as it is known that inhibition of electrical signalling can impede normal tissue function. Using bioinks derived from native nerve as a biomaterial platform developed in the Buckley lab for peripheral nerve tissue regeneration, this project proposes to enhance regenerative capacity of NGCs through the incorporation of electroconductive materials from partner labs in AMBER (e.g. graphene, silver nanowires, polypyrrole). Such a conductive biomaterial could thus provide direct electrical activation of isolated regions while also providing a scaffolding template to enhance the tissue repair process. Following optimisation of the fabrication/printing process, in vitro biocompatibility of the biofabricated NGCs and the response of cells to electrical stimuli will be assessed using in vitro methods prior to pre-clinical assessment. For more information please contact Prof. Conor Buckley email@example.com
Tissue-derived Bioinks for 3D Printing Applications- Material Characterisation, Biocompatibility and
Project Description: This project is part of multidisciplinary team that is exploring the use of emerging 3D Printing and 3D Bioprinting strategies for Tissue Engineering and the development of next generation medical devices. The project is part of the AMBER centre (http://ambercentre.ie) and located primarily at dedicated bioprinting and additive manufacturing laboratories based in Trinity College Dublin. With the advent of 3D printing in tissue engineering, the advantages of precise deposition and highly defined geometric patterning 3D biomaterial structures that it offers, efforts have been made to combine the benefits of ECM hydrogels with this technology. However, many of the existing ECM bioinks lack the necessary physiologically relevant mechanical properties, e.g. compressive strength, especially for application to high load environments in musculoskeletal, or high wear environments such as the cardiovascular system. Other drawbacks include slow thermogelation times, hindering printing speeds, and rapid degradation times, limiting their potential active therapeutic window for in vivo applications. Further chemical functionalisation of the ECM through the incorporation of photoactive moieties to the collagen fibre backbone allows for light polymerised photogelation, increased polymer network crosslinking, and improved tuning of material properties. To this end, we are developing a range of photoactive ECM shear thinning hydrogels, which can be used as injectable therapeutics or as bioinks for 3D bioprinting applications. This approach aims to combine the intrinsic regenerative potential of ECM and engineering precision of 3D printing, with distinct improvements in material and mechanical properties. In addition, understanding how these bioinks influence macrophage phenotype is important for in vivo applications. Engineering an appropriate immune response is integral to successful tissue regeneration given its importance to clearing damaged cells and tissue, recruiting host stem cells and inducing vascularization. For more information please contact Prof. Conor Buckley firstname.lastname@example.org
Applicant criteria: The ideal applicant will have a PhD in biomedical engineering, biomaterials, tissue engineering, biochemistry and immunology or a related discipline. Previous experience in 3D printing, hydrogels, tissue engineering, cell culture, gene expression, biochemical analysis, mechanical testing, histology techniques, immunomodulatory behaviour would be highly advantageous. Excellent written and oral communication skills are essential. An excellent publication record and/or development of intellectual property would be advantageous.
How to apply: CVs with the names and addresses of three referees should be submitted via email to Prof. Conor Buckley email@example.com with the subject heading “AMBER-Bioink Postdoc”. Positions will remain opened until filled but preferred start date is January 2021. Only short-listed applications will be acknowledged.
Postdoctoral Researcher in 3D Bioprinting and Tissue Engineering
Project Description: The successful applicant will join a multidisciplinary team that is exploring the use of emerging 3D bioprinting strategies for Tissue Engineering and the development of next generation medical devices. The overall goal of the project is to develop a new class of 3D bioprinted biological implant that will regenerate, rather than replace, diseased joints. This will be realised by integrating developments in the 3D printing of metals, biodegradable polymers and cell-laden bioinks to develop hybrid biological devices, using dedicated bioprinting and additive manufacturing laboratories based in Trinity College Dublin. The successful applicant will specifically focus on integrating 3D printed metal implants with tissue engineered articular cartilage to develop hybrid implants for resurfacing the hip joint. The overall project is a collaboration between the Advanced Materials and Bioengineering Research (AMBER) centre, DePuy Ireland Unlimited Company and Johnson & Johnson Services, Inc.
For more information please contact Prof. Daniel Kelly (firstname.lastname@example.org).
Applicant criteria: The ideal applicant will have a PhD in biomaterials, tissue engineering, 3D printing or a related subject. Previous experience in 3D (bio)printing, hydrogels, tissue engineering, cell culture, biochemical analysis, mechanical testing, histology techniques would be highly advantageous. Excellent written and oral communication skills are essential.
Start Date: From January 2021 onwards; position will remain open until it is filled.
How to apply: CVs with the names and contact details of three referees should be submitted via email to Prof. Daniel Kelly (email@example.com).