TLU Resources

"This seminar presents an innovative approach to enhancing engineering competencies through the parallel delivery of a capstone project and professional work placement elements in the final year of an undergraduate programme. Nationally, it is recognised that engineering students require more development of skills to be “culturally fit” engineering professionals. In order to achieve this, a longer placement was incorporated into MTU Cork’s Chemical Engineering programme with this industrial interface being leveraged to identify capstone projects, hosted in industry, for students to complete in parallel with their placement. Thereby providing students with more industrial exposure and developing more “culturally fit” employable graduates with general and transferrable skills as well as the necessary engineering knowledge. Since the adoption of these industrially hosted modules a repeated review process, facilitated by MTU Cork's AnSEO – The Student Engagement Office, has allowed “fine-tuning” of the approach and provided an improved student experience. This review process creates a constructive environment in which individual student voices can be heard alongside those of faculty. MTU Cork has created an enhanced experiential learning experience for its final year students and provided a vehicle to pilot methods for student-staff collaboration supporting the shared refinement of both placement and the capstone project. The benefit to industry is a structured longer placement (in line with international policy) to develop “culturally-fit” graduates. The impact on student success is notaView ble in that in excess of 90% employment levels have been observed in the graduate classes of 2018 and 2019. The student voice of their experiences substantiates the experiential and structured learning of these students"

"This seminar presents an innovative approach to enhancing engineering competencies through the parallel delivery of a capstone project and professional work placement elements in the final year of an undergraduate programme. Nationally, it is recognised that engineering students require more development of skills to be “culturally fit” engineering professionals. In order to achieve this, a longer placement was incorporated into MTU Cork’s Chemical Engineering programme with this industrial interface being leveraged to identify capstone projects, hosted in industry, for students to complete in parallel with their placement. Thereby providing students with more industrial exposure and developing more “culturally fit” employable graduates with general and transferrable skills as well as the necessary engineering knowledge. Since the adoption of these industrially hosted modules a repeated review process, facilitated by MTU Cork's AnSEO – The Student Engagement Office, has allowed “fine-tuning” of the approach and provided an improved student experience. This review process creates a constructive environment in which individual student voices can be heard alongside those of faculty. MTU Cork has created an enhanced experiential learning experience for its final year students and provided a vehicle to pilot methods for student-staff collaboration supporting the shared refinement of both placement and the capstone project. The benefit to industry is a structured longer placement (in line with international policy) to develop “culturally-fit” graduates. The impact on student success is notaView ble in that in excess of 90% employment levels have been observed in the graduate classes of 2018 and 2019. The student voice of their experiences substantiates the experiential and structured learning of these students"

Work placement is, at this stage, a mandatory element of many programmes within CIT and as such poses many challenges for those involved in the process, i.e. staff, students and potential employers. Since 1983, CIT’s Department of Process Energy and Transport Engineering has been offering the B. Eng. in Chemical & Biopharmaceutical Engineering, a full-time programme delivered over four academic years producing approximately 25 graduates annually, but in recent years this has increased to over 30. This programme predominately covers core chemical engineering and specific needs of the pharmaceutical and biotechnology sectors but continues to ensure that graduates will meet the needs of traditional chemical industries, be equipped to travel globally and are able to guide the pharma sector as it transitions from traditional batch operation to continuous operation.The philosophy of the programme is to produce broadly educated, professional engineers, who have gained a thorough grounding in fundamentals, an understanding of the state of the art, a keen sense of application, an awareness of the impact on society of their decisions, and an ability to develop as new technologies emerge and as they encounter new problems and opportunities. This programme is subject to internal re-approval every 5 years, involving external experts and is externally accredited by professional bodies such as Engineers Ireland, nationally, and the Institution of Chemical Engineers (IChemE), internationally, to Master Level Meng (Level 9). To date, this programme has provided in excess of 750 graduates, the majority of whom work in Ireland, in the biopharmaceutical/pharmaceutical industry with many having risen to senior appointments. In this seminar, our colleagues from the Department of Process Energy and Transport Engineering gave an overview of how their industrial work placement module, worth 15 ECTS credits, which runs from the end of the third academic year to the end of the first semester of the award year, evolved and how it can enhance engineering competencies and therefore have a significant impact on the career paths of their graduating engineers. They shared best practise based on their research, carried out with the assistance of CIT’s AnSEO – The Student Engagement Office, and experience for the delivery of the professional work placement from execution, mentoring and assessment of same. Those attending this seminar gained a clear understanding of: • How the delivery of industrial hosted modules within engineering third level institutes can be improved • How an enhanced experiential learning experience can be created for final year students • How key industrial partnerships can be fortified by developing “culturally fit” graduates

"UDL-ifying a university and its people Prof Jo Rushworth National Teaching Fellow and Professor of Bioscience Education Dr Jo Rushworth draws on her experience as a UDL champion for her School as she outlins a range of options and starting points for colleagues who are starting out on their Universal Design journey. This work focussed on providing students with flexible learning resources, flexible ways to engage with their learning and flexible ways to demonstrate knowledge and skills, that impacted both learning and teaching and institutional policy. In an interactive presentation, Jo tells us about how the UDL guidelines were brought to life and implemented across DMU and leads us in a discussion of early steps toward achieving UDL compliance in teaching practice and of options for continuing development and enhancement. Jo’s work on co-creation with students was among the highlights from her case study.

UDL-ifying a university and its people Prof Jo Rushworth National Teaching Fellow and Professor of Bioscience Education Dr Jo Rushworth draws on her experience as a UDL champion for her School as she outlins a range of options and starting points for colleagues who are starting out on their Universal Design journey. This work focussed on providing students with flexible learning resources, flexible ways to engage with their learning and flexible ways to demonstrate knowledge and skills, that impacted both learning and teaching and institutional policy. In an interactive presentation, Jo tells us about how the UDL guidelines were brought to life and implemented across DMU and leads us in a discussion of early steps toward achieving UDL compliance in teaching practice and of options for continuing development and enhancement. Jo’s work on co-creation with students was among the highlights from her case study. Timestamps 0:00 Introduction 4:13 Overview 9:54 Getting started: UDL Champions 12:31 6 UDL ideas: Quick wins and bigger ideas 13:10 Ideas 1 & 2 13:43 Ideas 3 & 4 14:00 Ideas 5 & 6 14:40 Moving forward: Staff UDL guidance & Training 16:51 UDL staff guidance 17:57 UDL self-assessment & development tool 19:16 Flexible study resources 23:05 Flexible ways to learn 27:03 Flexible ways to show learning 30:36 Co-creation 37:03 UDL-ify a module 56:22 Thank you!

Are you involved in new programme development and about to starting to create new modules? Or are involved in programmatic review and revising some existing modules? If so, the following is a Universal Design for Learning (UDL) Module Guide developed by our colleague Ann Toebes, Curriculum Development Facilitator, provides suggestions for how UDL can be embedded in the curriculum via the module descriptor.