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I am a Chartered Engineer and Lecturer in Mechanical Engineering in the School of Engineering and the Environment at Roehampton Vale. I joined Kingston University in September 2021. Prior to that I was teaching in Guildford College UK for 5 years. Before moving into UK in 2015, I spent over 7 years in various universities in Malaysia (Inti International University, Nilai University and Tenaga Nasional University) teaching Mechanical Engineering, primarily for undergraduates.
My area of expertise are Materials, Mechanics, Manufacturing, Structures and Project Management. Currently at Kingston University I teach modules involving these areas at all levels of study from Level 3 up to MSc.
I am very passionate about my research and ongoing work in the area of Tissue Engineering (Biomaterials). I have few ongoing projects and research on generation of tissue engineering scaffolds, calcination & study of animal bones and rapid prototyping (3D printing) of implantable materials particularly for Orthopaedic applications. I also have some collaborative work experience with the Tissue Engineering Centre in Malaysian National University Medical Centre (UKMMC). During my consultancy period with UKMMC, I had the opportunity to work with cell culture procedures, surgical implantation of artificial bone graft into sheep femur and biocompatibility & mechanical strength evaluation of these. One of my eureka moment in research is when I got the chance to participate in animal surgeries involving bone grafts and have developed a profound passion in this scope of study since.
I am also a member and mentor in the Women in Engineering Society, UK.
Lecturer in Mechanical Engineering
I teach Mechanics of Materials, Engineering Materials, Selection and Application of Materials, Project Management, Mechanical Design Processes, Sustainability and Entrepreneurship.
My research area revolves around Dental and Bone Tissue Engineering. This involves creating implantable bone and dental substitutes for critical skeletal defects that cannot heal on their own. Currently, my team and I are working on several projects which are mainly dental related, where we are using one of the niche technologies in additive manufacturing and biomedical engineering which is 3D printing as the main medium of fabrication. Several samples of biomaterial that is biocompatible and proved to have similar properties of real tooth are being manufactured, studied and evaluated by examining its microstructures, mechanical properties and many more. Our future aspiration is to fabricate bone scaffolds to conduct osteoconduction studies.
We have many partners working alongside us in these projects mainly from Malaysia and universities in the UK.
So far, I have secured 2 grants which are the Kickstarter grant - £9.9k and Research Capital Fund (RCF) worth £39k
Gnanasagaran, Constance Linda, Ramachandran, Karthikeyan, Ramesh, S., Ubenthiran, Sutharsini and Jamadon, Nashrah Hani (2022) Effect of co-doping manganese oxide and titania on sintering behaviour and mechanical properties of alumina. Ceramics International, ISSN (print) 0272-8842 (Epub Ahead of Print)
Linda, C., Meenaloshini, S., Zaimah, H. and Noor Zaimah, M. (2014) An analysis on the implementation of industrial training for mechanical engineering students in Uniten. International Journal of Asian Social Science, 4(5), pp. 664-669. ISSN (print) 2226-5139
Gnanasagaran, C., Ramesh, S. and Sutharsini, U. (2021) Sintering behaviour of alumina doped with small amounts of manganese and titania. In: 8th Brunei International Conference on Engineering and Technology 2021 (BICET 2021); 08-10 Nov 2021, Brunei Darussalam (held online). (Unpublished)
Linda, Constance, Long, Chua Yaw, Tiong, Tay Tee and Yan, Koh Yit (2016) Overview of peer review assessment for mechanical design process project in Universiti Tenaga Nasional, Malaysia. In: SEAAIR 2016 16th Annual Conference; 21-23 September 2016, Suan Dusit University, Thailand.. (Submitted)
Constance, L., Ramesh, S., Ting, C.H. and Tan, C.Y (2009) Effect of sintering additives on the properties of alumina ceramic. In: National Postgraduate Conference on Engineering, Science & Technology NPC2009; 25-26 March 2009, Perak, Malaysia.. (Unpublished)
One of the most powerful models of learning in my opinion is the Bloom's Taxonomy. This is particularly useful as my teaching styles involves a lot of problem based approach. I deliver this through group discussions, projects, research works and debates to name a few. I usually collect work samples from the workshops, especially the faulty ones as a teaching resource. Using the Bloom's Taxonomy as a reference, I always start the teaching process with a basic question, which may relate to the recent topics that I would have covered in a lesson. From there, I will try and scaffold the learners to a more deeper learning, covering each stage of the taxonomy. This allows all my learners to engage in the lesson more effectively as active discussions are always something that learners can anticipate in my classroom. This encourages surface learners to dig a little deeper into a topic, and the higher level learners to challenge themselves even more. Bloom's Taxonomy have proved time and time again that it encourages creative thinking to encourage innovation amongst the learners, especially those who are about to graduate. It hinders learners from being in complacency with what they already know and helps them to keep weaving through the knowledge to a stage of continuous learning and improvement. This attitude is extremely important for engineering graduates and it is one of the most valued attribute by the industry as well.
I am currently working on my CEng Qualification