Learnsci Teaching Innocvation Awards 2023 Previous winners
Winners & finalists
Winners
Finalists
Reality Bites is an immersive storytelling learning resource aiming to revolutionise nutrition education through Virtual Reality (VR). Combining VR with self-directed virtual journeys, students explore the human digestive system in an engaging narrative, transforming the traditional provision of dense, fact-based physiology content, into an interactive, student-centred experience. Spearheaded by a student-led development process, Reality Bites leverages cross-disciplinary expertise. Nutrition students created storyboards and computer science students converted them into VR scenarios. This collaboration resulted in a tool that nurtures highly sought skills like digital literacy and teamwork, whilst also being universally endorsed by students and nutrition experts as a engaging, memorable, and effective educational experience. Reality Bites not only augments science education at RMIT University but will broaden its educational impact through novel VR development frameworks and cross-institutional resource sharing. It signals a new era of digital learning that emphasises active engagement and creative innovations in higher education.
Reality Bites is an immersive storytelling learning resource aiming to revolutionise nutrition education through Virtual Reality (VR). Combining VR with self-directed virtual journeys, students explore the human digestive system in an engaging narrative, transforming the traditional provision of dense, fact-based physiology content, into an interactive, student-centred experience. Spearheaded by a student-led development process, Reality Bites leverages cross-disciplinary expertise. Nutrition students created storyboards and computer science students converted them into VR scenarios. This collaboration resulted in a tool that nurtures highly sought skills like digital literacy and teamwork, whilst also being universally endorsed by students and nutrition experts as a engaging, memorable, and effective educational experience. Reality Bites not only augments science education at RMIT University but will broaden its educational impact through novel VR development frameworks and cross-institutional resource sharing. It signals a new era of digital learning that emphasises active engagement and creative innovations in higher education.
#RemoteForensicCSI is a global science community with a membership from five continents, initiated by three National Teacher Fellows in a tri-institutional collaboration, during the Covid-19 pandemic. It was recognised that there was an evident science knowledge gap for academics (HE and FE) and professional trainers in the applied science remit of Criminal Justice education, with the rapid transition to online learning and the urgent requirements for relevant e-resources. #RemoteForensicCSI is distinctive in that it has innovated teaching and learning around the world, in three mechanisms: 1) in providing tools and methods in response to the pandemic challenge, 2) improving teaching materials and practices and 3) developing new digital learning resources. Additionally, this international community of practice provides peer support and continual professional development opportunities, which has translated to the wider science sector as an exemplar in innovative education.
#RemoteForensicCSI is a global science community with a membership from five continents, initiated by three National Teacher Fellows in a tri-institutional collaboration, during the Covid-19 pandemic. It was recognised that there was an evident science knowledge gap for academics (HE and FE) and professional trainers in the applied science remit of Criminal Justice education, with the rapid transition to online learning and the urgent requirements for relevant e-resources. #RemoteForensicCSI is distinctive in that it has innovated teaching and learning around the world, in three mechanisms: 1) in providing tools and methods in response to the pandemic challenge, 2) improving teaching materials and practices and 3) developing new digital learning resources. Additionally, this international community of practice provides peer support and continual professional development opportunities, which has translated to the wider science sector as an exemplar in innovative education.
The HIVE Digital Education and Teaching Innovation Unit has pioneered a number of e-learning resources, digital tools and innovative teaching practices that have significantly enhanced the student learning experience. They have created immersive virtual patient cases and scenarios that enable undergraduate medical students to reinforce their understanding of the basic science underpinning medicine, whilst enhancing their clinical reasoning skills by engaging with interactive e-resources. These e-resources cover specialties such as cardiology, neurology and psychiatry amongst others. In total, the unit has in excess of 140 e-learning resources within their repository and are creating an e-learning series (Medic-8) that will be made available to medical students around the world within the next few months. The unit is also currently creating truly immersive learning resources using VR and AR. These include virtual hospital wards as well as virtual laboratories. HIVE boasts a number of partnerships and collaborations with international higher education providers.
The HIVE Digital Education and Teaching Innovation Unit has pioneered a number of e-learning resources, digital tools and innovative teaching practices that have significantly enhanced the student learning experience. They have created immersive virtual patient cases and scenarios that enable undergraduate medical students to reinforce their understanding of the basic science underpinning medicine, whilst enhancing their clinical reasoning skills by engaging with interactive e-resources. These e-resources cover specialties such as cardiology, neurology and psychiatry amongst others. In total, the unit has in excess of 140 e-learning resources within their repository and are creating an e-learning series (Medic-8) that will be made available to medical students around the world within the next few months. The unit is also currently creating truly immersive learning resources using VR and AR. These include virtual hospital wards as well as virtual laboratories. HIVE boasts a number of partnerships and collaborations with international higher education providers.
At the University of Surrey, an early intervention framework has been designed and implemented to support students’ mathematical development in the transition to undergraduate Science, Technology, Engineering and Mathematics degree programmes. Based on our Virtual Learning Environment, the framework facilitates a process of pre-entry preparation and self-evaluation for new students. Students who find mathematics challenging are identified and referred to focused in-semester tutorial sessions from the semester outset. Their progress can be monitored through engagement with further online diagnostics. The diagnostic process is primarily delivered digitally but the emphasis shifts toward more focused individual support in the intervention stage, where students can attend focused additional tutorials. The stages of the process are summarised as follows; (1) complete initial review questions (2) identify areas for improvement and review specific learning objectives (3) complete departmental diagnostic quiz (4) attend additional tutorial sessions. Stages (1)-(3) are completed prior to course commencement. Around 600 students (90% of our new intake in the Faculty of Engineering and Physical Sciences) voluntarily engage with the pre-entry initial review and diagnostics process each year. Performance data from the framework and feedback from students indicates that the process has a positive impact in three important areas; (1) enhancing performance/development (2) student experience (3) perceived level of mathematical preparedness – typically this improves by 14% after initial diagnostic process.
At the University of Surrey, an early intervention framework has been designed and implemented to support students’ mathematical development in the transition to undergraduate Science, Technology, Engineering and Mathematics degree programmes. Based on our Virtual Learning Environment, the framework facilitates a process of pre-entry preparation and self-evaluation for new students. Students who find mathematics challenging are identified and referred to focused in-semester tutorial sessions from the semester outset. Their progress can be monitored through engagement with further online diagnostics. The diagnostic process is primarily delivered digitally but the emphasis shifts toward more focused individual support in the intervention stage, where students can attend focused additional tutorials. The stages of the process are summarised as follows; (1) complete initial review questions (2) identify areas for improvement and review specific learning objectives (3) complete departmental diagnostic quiz (4) attend additional tutorial sessions. Stages (1)-(3) are completed prior to course commencement. Around 600 students (90% of our new intake in the Faculty of Engineering and Physical Sciences) voluntarily engage with the pre-entry initial review and diagnostics process each year. Performance data from the framework and feedback from students indicates that the process has a positive impact in three important areas; (1) enhancing performance/development (2) student experience (3) perceived level of mathematical preparedness – typically this improves by 14% after initial diagnostic process.
Module MD4010 Professional Skills for Life Sciences I, at the University of Chester, aims to introduce and develop skills relevant to life science students, including the development of practical and data analysis skills. The previous module assessment faced challenges which included: lack of structure leading to students feeling overwhelmed, inconsistencies in feedback and delayed release of provisional marks/feedback due to increased student numbers, and staff workload. To address these issues, an innovative summative assessment Smart Worksheet was implemented into the module. Part A consists of a number of tasks allowing microscopy and scientific drawing skills to be assessed outside of the laboratory. The module leader provided microscopy images and scientific drawings which were digitally transformed by LearnSci, to ensure a distinctive set for each student. Instant feedback opportunities allowed for immediate skill development and adjustment. Part B involves step-wise calculations, breaking down calculations into manageable steps. Early evaluation of the impact reveals improved student achievement (average mark increased from 77% (2022/23) to 85% (2023/24), with 92% of students achieving a mark exceeding 70% (2023/24)), enhanced student learning, elimination of academic conduct issues and enhanced student satisfaction and staff wellbeing.
Module MD4010 Professional Skills for Life Sciences I, at the University of Chester, aims to introduce and develop skills relevant to life science students, including the development of practical and data analysis skills. The previous module assessment faced challenges which included: lack of structure leading to students feeling overwhelmed, inconsistencies in feedback and delayed release of provisional marks/feedback due to increased student numbers, and staff workload. To address these issues, an innovative summative assessment Smart Worksheet was implemented into the module. Part A consists of a number of tasks allowing microscopy and scientific drawing skills to be assessed outside of the laboratory. The module leader provided microscopy images and scientific drawings which were digitally transformed by LearnSci, to ensure a distinctive set for each student. Instant feedback opportunities allowed for immediate skill development and adjustment. Part B involves step-wise calculations, breaking down calculations into manageable steps. Early evaluation of the impact reveals improved student achievement (average mark increased from 77% (2022/23) to 85% (2023/24), with 92% of students achieving a mark exceeding 70% (2023/24)), enhanced student learning, elimination of academic conduct issues and enhanced student satisfaction and staff wellbeing.
The BSc (Hons) Biomedical Sciences (BMS) programme at Newcastle University Medicine Malaysia (NUMed) and Newcastle University U.K. (NCL) aim to equip students with key practical and professional research skills for their future career path. Commencing AY 20-21, to support student learning during the Covid-19 pandemic, a suite of linked online resources was introduced to support BMS laboratory practicals, including in-house videos of laboratory techniques, example data and LearnSci LabSims. In response to positive student feedback, the online resources were subsequently retained to support physical laboratory classes.
Student surveys confirmed both NCL and NUMed students used LabSims and other online resources to aid preparation for physical laboratory practicals, but indicated more frequent usage by NUMed students, and enhanced usage by students across both campuses who were less confident in their physical practical ability.
To provide deeper qualitative data on student perceptions on the expediency of supporting online resources and their overall practical and professional skills development, we propose to run focus groups at both campuses as the same cohorts commence Year 2 in AY 24-25 . We propose to use findings from this study to redevelop and further evaluate the online resources supporting NUMed/NCL practical skills modules in the BMS programme.
The BSc (Hons) Biomedical Sciences (BMS) programme at Newcastle University Medicine Malaysia (NUMed) and Newcastle University U.K. (NCL) aim to equip students with key practical and professional research skills for their future career path. Commencing AY 20-21, to support student learning during the Covid-19 pandemic, a suite of linked online resources was introduced to support BMS laboratory practicals, including in-house videos of laboratory techniques, example data and LearnSci LabSims. In response to positive student feedback, the online resources were subsequently retained to support physical laboratory classes.
Student surveys confirmed both NCL and NUMed students used LabSims and other online resources to aid preparation for physical laboratory practicals, but indicated more frequent usage by NUMed students, and enhanced usage by students across both campuses who were less confident in their physical practical ability.
To provide deeper qualitative data on student perceptions on the expediency of supporting online resources and their overall practical and professional skills development, we propose to run focus groups at both campuses as the same cohorts commence Year 2 in AY 24-25 . We propose to use findings from this study to redevelop and further evaluate the online resources supporting NUMed/NCL practical skills modules in the BMS programme.
Supporting students transitioning into Higher Education (HE) is vital for wellbeing and retention. While all students require transition support, groups underrepresented in HE are likely to benefit most. We worked with current students from underrepresented groups in HE from the University of East Anglia (UEA) School of Biological Sciences (BIO) to identify what would be useful for new students to experience ahead of starting university based on their own experiences and a cohort-wide survey. Our student interns co-created content for our resulting ‘Preparing for your Biology Studies’ module: a non-credit bearing Blackboard module developed for BIO Foundation and First Year students which includes innovative use of digital tools to support science education. Commencing two weeks before students’ campus arrival, continuing into Welcome Week, with occasional content released through the year, it focuses on supporting learning, studying and transition into HE. Making no assumptions about student prior knowledge, background or experiences, content should be particularly valuable to students underrepresented in HE, as project leads worked with current students from these groups to help identify content areas and co-design some resources. Institutional impact is demonstrated through other UEA schools adopting the resource.
Supporting students transitioning into Higher Education (HE) is vital for wellbeing and retention. While all students require transition support, groups underrepresented in HE are likely to benefit most. We worked with current students from underrepresented groups in HE from the University of East Anglia (UEA) School of Biological Sciences (BIO) to identify what would be useful for new students to experience ahead of starting university based on their own experiences and a cohort-wide survey. Our student interns co-created content for our resulting ‘Preparing for your Biology Studies’ module: a non-credit bearing Blackboard module developed for BIO Foundation and First Year students which includes innovative use of digital tools to support science education. Commencing two weeks before students’ campus arrival, continuing into Welcome Week, with occasional content released through the year, it focuses on supporting learning, studying and transition into HE. Making no assumptions about student prior knowledge, background or experiences, content should be particularly valuable to students underrepresented in HE, as project leads worked with current students from these groups to help identify content areas and co-design some resources. Institutional impact is demonstrated through other UEA schools adopting the resource.
More fantastic examples of teaching innovation
The COVID-19 pandemic accelerated the shift to digital learning, ushering in a new era of online education and prompting the widespread use of online tools; tools that were not always suitable for their intended use. Post-COVID, educators have the opportunity to develop dedicated innovative digital education tools. Augmented reality (AR) technology, superimposing digital data onto the physical world, has gained traction in science, particularly for visualising complex structures. Available on Apple and Google Play, the ARCHEM app was launched in 2023. This free app uses AR to dynamically illustrate chemical reactions and structures, aiding student comprehension. Developed through a unique student-staff partnership model, it engaged chemistry, computer programming, digital development and creative media staff and students in its development. User feedback highlights its effectiveness, offering a transformative, customisable solution for remote learning. This approach demonstrates the potential of using digital technology for widespread and effective educational impact at scale.
A YouTube channel has been set up, which hosts our prelab and in lab videos for forensic science. The videos are used by BSc Forensic Science and BSc Forensic Science and Criminal Investigation students and cover a range of topics for forensic chemistry and practical forensic science. The videos are shared with students via Blackboard and are also hosted on YouTube https://www.youtube.com/@UCLanForensicScience/videos. They were co-created with a graduate intern from forensic science and collaboration from a graduate from School of Arts and Media. The topics these videos covered was chosen with input from students on which practicals could use a pre lab video and they were filmed in the teaching laboratories that the students would be working in. They have been designed so that students can use them to prepare for practical classes and can be watched in the lab on students' own devices or on monitors in teaching labs. An example of student feedback so far is: “If you have any confusion about the specifics of a technique, the videos show it clearly.”
Universities seek to develop “Change-makers”, graduates equipped with the competencies (knowledge, skills, behaviours) to make a difference, able to offer solutions to the complex problems facing the world. They need to be global in outlook, possess cultural capital and awareness. These competencies cannot be taught didactically, they can only be acquired through experience of working with or for communities. Colleagues within Biomedical Sciences at the University of Leeds have created three such culturally immersed, community-engaged inspirational learning experiences, one for each year of study, which progressively develop these experiences and competencies. Learners are given team-based challenges where they must create evidence-driven solutions to a local challenge (Level 4), UN Sustainable Development Goal (Level 5), and Grand Challenges capstones (Level 6). In the latter two levels, students collaborate with learners in Nigeria and India. They are assessed by e-portfolios, creating digital objects (e.g. mind-maps, Prezi software, podcasts) that they feel best disseminate their information and showcase their creativity and competencies to ourselves and employers. It is a model of inspirational community-engaged learning applicable across all disciplines.
Students at Stellenbosch University have been using LearnSci LabSims since 2020 to support preparedness for chemistry practicals. However, as LearnSci LabSims were only available in English, it was not possible to fully integrate them as part of formative assessment due to the university's dual-medium policies. Thus in 2023 a set of LabSims around titrations were translated into Afrikaans. From the engagement reports on the VLE/LMS, it could be seen that Afrikaans students were engaging with these new simulations at essentially the same rate as the English students. Informal conversations with students and class reps revealed that the translations were well received and therefore we plan to roll this out more extensively next year.
The aim was to use Smart Worksheets to create flexible, computer generated datasets for students to analyse within R statistical software and then apply to problem-based scenarios related to their degree speciality. Working across two separate core Life Science courses (Animal biology and Microbiology), each compulsory and taken by approximately 150-200 students, these Smart Worksheets allow students to generate and regenerate unique personalised datasets from actual data, which they then need to statistically analyse in R. For both courses, Smart Worksheets enabled the movement of analysis of a single, static dataset into an interactive, flexible one, still based around real data but unique every time students engage with it. This change improves students' learning of how to apply statistical analysis to these datasets, as each iteration is slightly different but should still produce a consistent final result. Our further plans for the Smart Worksheets include linking them with our Practical Skills Tracking checklist in Moodle, in order to support student awareness in their skills competency and improve their confidence in what they have achieved while at university. We also plan to extend use of the Smart Worksheets to our first semester course taken by all second-year students in Life Sciences (Fundamental Topics in Biology, attended by 550-600 student annually), as data analysis and interpretation are also included in the main practical of this course.
Massive Open Online Course (MOOC) -style short asynchronous video materials have been implemented in chemistry units at the Manchester Institute of Biotechnology to make best use of students' own study time. This allowed for the learning in the remaining on campus session to be maximised. By implementation of this student-partnered flipped model, on campus time with instructor and students is used as efficiently as possible without any new content delivery and focusing on peer-peer discussion, direct two way feedback with the lecturer and inter-cohort inheriting of course knowledge. Moreover, the use of asynchronous videos and interactive synchronous sessions has allowed inclusion of hard-to-reach teaching staff in university provision (time-poor, remote industrial professionals in the former and inexperienced postdoctoral researchers with a high barrier to engagement in undergraduate teaching in the latter).
Isolated tissue preparations have been used for decades as reliable and robust laboratory classes to deliver the basic principles of pharmacodynamics. The importance of simulation in science and health care education is widely acknowledged but many educators are reluctant to replace well-established laboratory classes with simulations through fear of a lack of authenticity and diminished laboratory competence. The goal of this project was to develop an educational resource for the first-year Introduction to Neuroscience and Pharmacology module, that could provide an almost identical experience to the laboratory class. The Organ Bath: Ileum resource included a remote lecture introducing the laboratory apparatus and the LearnSci LabSim and Smart Worksheets. Video footage of key experimental procedures, including tissue harvest were produced, edited and incorporated into Moodle Books. Records were kept of laboratory class attendance, whether or not students attempted the resources and Moodle quizzes and their grades. This was correlated with their overall examination grade and their performance in the ten questions contained within the end of module exam. A modest but significant 7% increase in grade was achieved through attendance at the laboratory class; however the greatest impact (24% improvement) was seen when both the LearnSci LabSim and Moodle quiz were completed. Ultimately, this work validates the use of simulations in a pharmacology setting.
Problem-based learning (PBL) traditionally occurs in small groups with the aim of developing problem-solving skills through engagement with an authentic patient case study. Dr. Clare Tweedy has achieved the benefits of PBL in a large-class setting with a single facilitator. 220 students in a Level 2 Neurobiology module were assigned to 47 groups at random. The aim was to use PBL to develop problem-solving skills and enable students to evaluate the relationship between anatomical structures and their functions. An inclusive design approach (including team agreements and peer ratings) was taken to ensure that group work was equitable as a means of authentic assessment. A patient case study was provided alongside a workbook containing weekly short-answer questions. Learning was supplemented with pre-recorded videos and a linked laboratory practical. All sessions were timetabled in a teaching space on-campus. After submission, students completed peer ratings through BuddyCheck and were asked to reflect on their own contribution and that of their peers. Students could be penalised up to 5% if their contribution did not meet expectations. The timetabling of all group work sessions was particularly well-received and should be implemented whenever group work is carried out. In addition to development of problem-solving skills and subject-specific knowledge, students were highly engaged with the authenticity of the patient case study task. This successful implementation has positively influenced others at the Univeristy of Leeds and in the wider educational network using team-based modules.
Two VR projects were implemented at The Meta Lab and will be made publicly available for use.
VR Climate Education: With misleading terminology, non-intuitive emission measurements and a range of psychological barriers (present bias and availability heuristic), teaching key aspects of climate change can be challenging. With the goal to leverage emerging tech to better translate and visualise emissions data, VR was used to create virtual classrooms. Emissions data was translated into height and students could, for example, ‘climb’ the emissions of common items. The project was titled 'Making the Invisible Visible' and was revealed across multiple lectures and workshops. Screen recordings were released to reach a much wider audience. Students frequently comment on how the project makes the data easier to understand, engage with, and recall.
VR Public Speaking: Approximately 60% of university students suffer from glossophobia (the fear of public speaking) and approximately 90% would like help with public speaking. While many universities offer training, those most affected are the least likely to attend in-person opportunities. To create virtual stages where students could develop skills and resilience in a self-guided and gamified journey, students were given access to workshops and in-person speaking opportunites along with online platforms in VR.
The ability to tell right from wrong is as vital to an engineer as maths or design skills, yet many UK higher education institutions fall short in effectively developing these abilities in future engineering professionals. The Engineering Ethics Toolkit solves this problem with a suite of resources to help educators integrate ethics into the learning of every engineer. The Toolkit contains ready-to-use classroom resources for engineering educators, suitable for those who are new to teaching ethics, as well as those who are more experienced. Case studies and teaching materials highlight current and emerging real-world issues and contain suggestions for implementation, rooted in educational best practice. The interactive Ethics Explorer helps educators understand, plan for and implement ethics learning across engineering curricula and showcases its alignment with accreditation criteria. Guidance articles provide concise descriptions of key topics in engineering ethics education, highlighting solutions and promoting engagement with further resources.
In recent years the focus of our practical chemistry classes at QMUL have shifted away from getting the "right" answer and instead onto the key skills and techniques needed to get to that answer. We have identified 16 key skills that we consider essential for all year 1 chemistry students to master by the end of the academic year. To support this approach, we have co-created with our students a library of augmented reality instructional guides using the Microsoft Hololens2 technology. Students are able to book time on the headsets outside timetabled lab classes and work through the guides at their own pace and multiple times if required. This provides a low stake environment, where our students can make mistakes without it impacting final grades, that helps to build competence and confidence in these key skills.
Upholding academic integrity can be especially challenging when a large class is subdivided into multiple groups for an assessment. The case in question concerns a class of approximately 125+ students who undertake an Excel assessment in the penultimate week of term, to demonstrate mastery of Excel skills taught during the semester in a Year 2 module entitled Data Modelling & Statistics. Formerly, the assessments were held during students scheduled lab times throughout the week. Obviously, students talk – even when they are prohibited from taking the assessment out of the lab… In addition, the correcting of these 125+ files was an onerous task. To solve both the integrity issue and the correcting workload the innovation was to use the VLE (Moodle) to deliver a randomised individual dataset to each student via a Moodle quiz. Using Cloze type questions answers could be pre-loaded which thus obviates the need for manual correcting.
Laboratory Skills Portfolio (LSP) is an extra-curricular skills development program with a series of fundamental laboratory activities running in parallel with teaching programs. It has been designed and implemented in response to a perceived lack of student confidence and competence when learning in laboratories. LSP is a series of voluntary, interactive, laboratory activities that run in parallel with undergraduate and postgraduate laboratory teaching. These focus on fundamental laboratory skill development, in a relaxed and informal environment, where individual students are encouraged to practise skills they are interested in and which they have identified through self-assessment as being of benefit. Sessions run weekly and are open to all students, at all levels, from all programs in the School of Life and Environmental Sciences. These lab skills align similarly with the LearnSci LabSims and students can complete them in their own time before coming to LSP. The LabSims are also available within the sessions and are helpful in explaining processes to students, allowing sessions to work on a one-to-one basis with ~70 students attending and 2 academic staff. LSP is for students at all levels and abilities to learn at their own pace in a relaxed environment, improving confidence. The LabSims increase the speed students learn, becoming readily confident with practical skills so they flourish during practical classes or independent research projects. LSP supports employability with a bespoke skills certificate. Ethical approval allows us to measure the impact of LSP with before and after surveys and to date feedback is overwhelmingly positive. Students will be asked to complete a survey again upon finishing and the changes in student confidence recorded, and this will feed directly into future LSP development.
Students typically don’t recognise the skills they learn, develop and perfect during a chemistry degree programme. Resultingly, Dr. Ryan Mewis and colleagues have implemented the use of Moodle badges to showcase the skills students acquire in first year inorganic and organic laboratories, and to formally recognise their practical abilities and professional development. Badges are earned by completing pre-laboratory exercises including LearnSci videos, LabSims and guides, COSHH forms and bespoke in-house made videos that introduce the skill, followed by a laboratory class to practice and demonstrate proficiency of the skill. The students’ laboratory-based mark is weighted more towards the development of these skills rather than post-lab exercises, to engender the importance of skill generation and retention. This gives laboratory classes a real purpose beyond the generation of data for a post-lab exercise, and not only helps students to appreciate the significance of the skills they are practising, but also allows them to take those skills forward and apply them in future laboratory situations. 71% of students surveyed agreed or strongly agreed that the use of Moodle badges helped them to identify the skills that they were developing. Student feedback on the use of Moodle badges included: the “emphasis [of laboratory sessions is] on skills development which is what I feel labs are all about, to have the skills to take into the real world, the badges also help us recognise the purpose our work serves to us too.”
In optometry, it's crucial for students to understand the basic principles behind how light interacts with materials (like in the eye and in lenses), which is made easier with access to equipment in our labs where they can see these effects for themselves. However, students don't have access to the specialist equipment outside of the labs, and these 'basics' are often very challenging, even with the facilitating hands-on experience. To address this, Dr. Samantha Strong devised a series of 'click and play' experiments that are hosted through a free website (https://strongoptics.wordpress.com/). Students complete these experiments as often as they like, from the comfort of their home. For this, she filmed herself completing the experiments and making 'deliberate mistakes' or asking targeted questions that students need to answer before they can move on. This focuses their learning and gives them more context outside of the lab, in a format they enjoy learning from. Student feedback has been brilliant: “videos on practicals make it easier to visualise and understand” (22-23), “...very useful when it comes to preparing for upcoming practicals” (22-23), and scores on practical-based assessments have improved to >60%. The website statistics show that in 2022-2023, there were over 20,000 views and over 1,500 visitors from across the world.
Animations help teach Computational Chemistry. Students often struggle linking maths with computational models and the submicroscopic scale. Animations are an engaging way to connect these concepts ahead of a computer practical. They make it possible to learn the nuts and bolts of a computational model without yet knowing any programming. A set of animations were produced using manim (Mathematical Animations), an open source project which allows for programmatically generated precise animations. These animations connect the theory to the implementation of a simulation of liquid motion at the atomic scale. The students are then supplied with the source code for the simulation and, empowered by the animations, use the code to answer their own research questions.
In response to disruptions caused by the global pandemic, a transformative hybrid learning model was developed for first-year students, delivering the traditionally hands-on Polymerase Chain Reaction (PCR) technique through a multifaceted strategy. This comprehensive approach, combining prelab resources via Sway presentations and virtual lab simulations, followed by a hands-on session and quizzes, facilitated a profound understanding of PCR principles. The innovative model not only prepared students for future applications, honed their scientific communication skills and provided diverse learning opportunities, but also demonstrated flexibility and reusability, establishing it as a successful and adaptable educational example for the future.
For the past four years, Digital Teaching and Learning Specialist, Lyndsey Stuttard, has been promoting the purposeful use of Augmented Reality across the school, an initiative that was launched during the pandemic to keep students engaged. Since then, they have actively been bringing AR to all ages, starting with four year olds and developing all the way to High School. They see AR as a creative tool that students can leverage to bring their ideas to life. Their use of AR helped them stand out as an Apple Distinguished School, which now offers them the chance to host visits from around the world for those that want to learn new approaches. They see the use of AR helping their students to recall more information from the innovative and immersive experiences year on year, remembering facts embedded in the AR years later.
Lingnan University's metaverse learning experience seamlessly integrates interactive virtual reality with history and science education. Students delve into the Great Depression as business analysts through time travel, engaging with AI-powered avatars, and navigate complex environmental issues as consultants in a biogas plant simulation. This innovative approach has yielded a demonstrable increase in knowledge retention and application, as reflected in statistical analysis. Student testimonials praise the platform for its ingenuity and immersive quality, with one student describing it as "innovative and eye-catching." Such feedback aligns with the observed enhancement in engagement and deeper comprehension across subjects. This cross-disciplinary approach leverages problem-based and experiential learning, promoting engagement and deep understanding. By combining interactive tasks with real-time feedback, the initiative not only imparts practical skills and insights but also prepares students for future technological landscapes. This model stands out as a substantial advancement in employing advanced technology to enrich educational outcomes.
Winners
Finalists
The WorldSkillsUK laboratory technician annual competition leads diverse applicants on a progressive development of applied practical skills within the discipline. Participants are from across the UK in early stages of educational or apprenticeship routes within Chemical, Biomedical or Biology fields. LearnSci resources are included online to cater to this diversity, offering familiarisation to new techniques and practice of core skills prior to regional laboratory-based tasks. This platform demonstrably broadens participation and enhances inclusivity for applicants by allowing students of varied backgrounds and disciplines to succeed. Linked quiz-based assessment further generates engagement metrics and a selection process that correlates well with subsequent practical performance. The resources encompass skills and knowledge beyond practical techniques, further supporting the employability skills focus throughout. This is a continued resource for training towards the national and international levels of WorldSkills, developing expertise and good laboratory practice in laboratory skills working effectively alongside practical experience.
The WorldSkillsUK laboratory technician annual competition leads diverse applicants on a progressive development of applied practical skills within the discipline. Participants are from across the UK in early stages of educational or apprenticeship routes within Chemical, Biomedical or Biology fields. LearnSci resources are included online to cater to this diversity, offering familiarisation to new techniques and practice of core skills prior to regional laboratory-based tasks. This platform demonstrably broadens participation and enhances inclusivity for applicants by allowing students of varied backgrounds and disciplines to succeed. Linked quiz-based assessment further generates engagement metrics and a selection process that correlates well with subsequent practical performance. The resources encompass skills and knowledge beyond practical techniques, further supporting the employability skills focus throughout. This is a continued resource for training towards the national and international levels of WorldSkills, developing expertise and good laboratory practice in laboratory skills working effectively alongside practical experience.
Chirality-2 is a free game for iOS and Android and one of the first mobile apps developed to help students learn chemistry. Downloaded almost 30,000 times in over 30 countries since release, it has been independently proven to improve students’ skills and attitude in chemistry. Chirality-2 was designed by academics but built with students, for students. The aim was to produce an innovative digital tool to enhance student learning and make it more enjoyable. The app has positively impacted teaching quality worldwide for five years and aims to continue to do so.
Chirality-2 is a free game for iOS and Android and one of the first mobile apps developed to help students learn chemistry. Downloaded almost 30,000 times in over 30 countries since release, it has been independently proven to improve students’ skills and attitude in chemistry. Chirality-2 was designed by academics but built with students, for students. The aim was to produce an innovative digital tool to enhance student learning and make it more enjoyable. The app has positively impacted teaching quality worldwide for five years and aims to continue to do so.
Productville is a set of teaching resources, focusing on five real-world pharmaceutical products (Zovirax [cream], Diprivan [emulsion], and Sudafed, Anzatax and Phenobarbitone [solutions]) – to illustrate many difficult-to-understand scientific concepts, such as partitioning and solubility. The products contextualise scientific concepts through familiarity by using stories and experiences students can relate to. They illustrate various pharmaceutical forms (solutions, emulsions, and creams), relevant physico-chemical properties, and diverse medical conditions or needs, and were incorporated into all phases of learning including case studies, lectures, workshops, and assessments.
Productville is a set of teaching resources, focusing on five real-world pharmaceutical products (Zovirax [cream], Diprivan [emulsion], and Sudafed, Anzatax and Phenobarbitone [solutions]) – to illustrate many difficult-to-understand scientific concepts, such as partitioning and solubility. The products contextualise scientific concepts through familiarity by using stories and experiences students can relate to. They illustrate various pharmaceutical forms (solutions, emulsions, and creams), relevant physico-chemical properties, and diverse medical conditions or needs, and were incorporated into all phases of learning including case studies, lectures, workshops, and assessments.
Pairs of practicals and supporting Smart Worksheets were developed to support foundation year students who feed into programmes across the faculty. In each pair, the first experiment was supported by a Smart Worksheet with all the feedback available at each step and the final mark was formative. The second experiment was like the first (different chemistry) but the worksheet had no feedback and the final mark was summative. This “formative first” method allows students to practice lab techniques (the worksheets give marks / feedback for raw data accuracy), subsequent calculations (with feedback on which steps are incorrect and why) and experience of the worksheets before the assessed practical. Analysis of the submissions of over 600 students show that those who complete formative assessments have an average mark from the summative assessments that is 10% higher than those who do not.
Pairs of practicals and supporting Smart Worksheets were developed to support foundation year students who feed into programmes across the faculty. In each pair, the first experiment was supported by a Smart Worksheet with all the feedback available at each step and the final mark was formative. The second experiment was like the first (different chemistry) but the worksheet had no feedback and the final mark was summative. This “formative first” method allows students to practice lab techniques (the worksheets give marks / feedback for raw data accuracy), subsequent calculations (with feedback on which steps are incorrect and why) and experience of the worksheets before the assessed practical. Analysis of the submissions of over 600 students show that those who complete formative assessments have an average mark from the summative assessments that is 10% higher than those who do not.
The aim was to increase student engagement and motivation using online materials before, during and after lab practicals, and hence increase first-time pass marks. LabSims and Smart Worksheets were implemented into teaching across a variety of Level 4 and 5 modules. Students received timely feedback and were able to practise to improve their future summative work, whilst staff wellbeing was supported with reduced marking loads. The overall average student mark increased and overall fails decreased significantly.
The aim was to increase student engagement and motivation using online materials before, during and after lab practicals, and hence increase first-time pass marks. LabSims and Smart Worksheets were implemented into teaching across a variety of Level 4 and 5 modules. Students received timely feedback and were able to practise to improve their future summative work, whilst staff wellbeing was supported with reduced marking loads. The overall average student mark increased and overall fails decreased significantly.
More fantastic examples of teaching innovation
The Postgraduate Clinical Pharmacy Diploma is a distance learning course delivered at De Montfort University. The programme consists of a blend of clinical and practice modules directed at qualified pharmacists to create more confident practitioners and enhance their employability skills. Given the nature of the course format, there was a need for a more innovative way for students to collaborate virtually. A virtual patient project was created on the interactive media platform; Thinglink and shared with students. A specific area for students to collaborate and communicate virtually was also created on Microsoft Teams. The outcomes of the project allowed students to learn through problem-based learning, collaboration, and scaffolding. Through this innovative project, students developed their critical thinking and digital literacy skills.
PolyGlot, a personalised and gamified e-tutoring system, allows for scalable individual coaching. Whilst currently in developmental stages, it already provides an interactive, engaging and motivating experience for students learning modelling and programming. The flexibility of .NET interactive allows PolyGlot to seamlessly mix variegated activities such as quizzes, modelling and multi-language coding exercises and create comprehensive learning paths that can be tailored to the student.
Two tools were developed to overcome challenges for delivering and assessing practical work during the pandemic and have since continued to be used with reduced restrictions as they both help students prepare for labs and improve learning outcomes. Web browser based simulations allow students to virtually complete the session's experimental design and interpretation stages. Online exams with scripts to set and automatically mark unique exams for each student allowed the benefits of online exams to student wellbeing to remain, without compromising exam integrity.
ProjectAnatomy is a prototype that combines a 3D physical object with 2D animation in a mix of art, science, and technology. A physical human forearm was sculpted within a 3D modelling software, then 3D printed at life-size. The animation was done in the same software, post-processed with structure names and then projected onto the physical arm at a Researcher's Night event at Masaryk University. Overall it had very positive feedback from attendees who were not experts in human anatomy but got interested in it by seeing the ProjectAnatomy installation.
Inspried by a previous sucessful Massive Open Online Course (MOOC) delivery, learning outcome focussed videos are used to support a departmental student-partnered flipped classroom approach to teaching chemistry. Implementation of this student-partnered flipped model has resulted in the campus time with instructor and students to be used as efficiently as possible without any new content delivery.
With growing cohort numbers and spacial barriers in laboratories, it is often hard for students to hear and see in-situ introductory laboratory presentations and to take in key information. A suite of 18 videos were developed that ensured consistency and quality of laboratory demonstrations. These videos, including close-up shots of particularly important parts of the demonstration, were made available via the Learn platform prior to the start of laboratory sessions, increasing engagement and preparedness.
Adopting a Flipped Classroom/Just in Time Teaching model, a website was created where students answered posted questions. The answers are then discussed in class, forming an active classroom environment where student answers and perspectives are discussed, enriching their curiosity and understanding.
To overcome barriers for Forensic Science learners who cannot attend physical labs or fieldwork, eXtended Reality (XR) was used to provide a variety of effective immersive environments. Three case studies of a pXRF lab, online geophysics course and forensic search educational egame were developed and used. Positive feedback was received internally at the University and from the wider HE sector using these, with statistical improvements in pXRF instrumentation, geophysics and search knowledge. A Gold Open Access journal article has just been published to showcase the project, freely giving case study access and teacher resources for others.
Collaboration between Swansea University and the publisher of Nursing Times has resulted in a series of six articles in the online magazine. These have also been made available to educators and students on health-care related courses, such as nursing, paramedic science and osteopathy, at higher education institutions including Swansea University. A great way to make sure students have access to reliable sources of information.
Following on from their winning entry in last year's awards, Helen Cregg and Dr. Joan O'Keeffe showcase how the usage of Pebblepad as a digital tool for learning in Medical Science has developed in the department. Further expansion of this initiative has resulted in improvements in student training on practice placement, with inclusion of feedback from practising Medical Scientists, and the expansion of Pebblepad as a tool for learning and assessment into other modules in the Medical Science undergraduate program.
Skills development is a crucial component of higher education. To allow students to reflect on, and pro-actively engage with their skills development, an ePortfolio was developed using Microsoft OneNote (a Class Notebook with an associated Teams page), with training provided by a self-paced, interactive online training module (created with Xerte). The ePortfolio guides student skills development by using feedback from past assignments to develop skills in the present, providing evidence for employers in the future.
2020 brought about modification to all practical chemistry modules. The focus was shifted away from getting the "right" answer and instead on the key skills and techniques needed to get to that answer. Subsequently, the assessment associated with the module was reimagined so that it too re-enforced the skills-based approach. Four experiments were focussed upon that showcased the full range of skills and techniques expected of students. Bespoke Smart Worksheets were created which allowed students to enter their own unique data from the lab thereby reducing collusion. Students analysed the data and most importantly related it back to the skills and techniques that were required to generate it in the first place, thus closing the skills based feedback loop.
Introductory chemistry and biology for first year BSc Forensic Science students was reimagined with a focus on the development of key practical skills and techniques required for the following year of study. Pre-lab material including lab scripts, quizzes, LabSims and student co-created videos, made available via Blackboard, better prepared the students and increased their confidence to carry out practical science.
Winners
Finalists
Pre-COVID-19, students collected data in the lab and processed it in a follow-up session using a Smart Worksheet. Assessment took the form of an end-of-module exam, where calculations were carried out using previously unseen data. With the shift to online learning, this exam changed to an open book, non-vigilated 24-hour format. High-stakes, time-pressured online assessments are an ideal environment for student collusion, and the previous exam, with a single correct answer, was especially high risk for students checking answers with each other or working collaboratively. The Smart Worksheet continued to be a valuable tool even with no student-collected lab data. Historical datasets were provided which enabled the students to complete the formative work. For the end-of-module assessment, students downloaded the exam paper and their unique dataset, generated by an R script. All students used the correct dataset and there was no evidence of collusion. Alongside the students’ datasets, the R script generated an answer file for the marker containing all answers and workings, including plotted data. Student performance showed no statistical difference to the previous two years, despite students having access to their notes and the internet, and less time pressure. The mean and median marks for the data section of the exam remained the same as the previous two years.
Pre-COVID-19, students collected data in the lab and processed it in a follow-up session using a Smart Worksheet. Assessment took the form of an end-of-module exam, where calculations were carried out using previously unseen data. With the shift to online learning, this exam changed to an open book, non-vigilated 24-hour format. High-stakes, time-pressured online assessments are an ideal environment for student collusion, and the previous exam, with a single correct answer, was especially high risk for students checking answers with each other or working collaboratively. The Smart Worksheet continued to be a valuable tool even with no student-collected lab data. Historical datasets were provided which enabled the students to complete the formative work. For the end-of-module assessment, students downloaded the exam paper and their unique dataset, generated by an R script. All students used the correct dataset and there was no evidence of collusion. Alongside the students’ datasets, the R script generated an answer file for the marker containing all answers and workings, including plotted data. Student performance showed no statistical difference to the previous two years, despite students having access to their notes and the internet, and less time pressure. The mean and median marks for the data section of the exam remained the same as the previous two years.
Postgraduate research skills training and in-person lab practice are integral to doctoral training programmes. The impossibility of accessing lab facilities during the COVID-19 pandemic, and the reopening of these labs with restrictions, meant most research training could not be provided in person. This took a serious toll on postgraduate research student (PGR) motivation, undermining their self-confidence in lab practice.
To solve this problem, the School of Pharmacy developed two learning resources - “PGR Biosciences Lab Shots” and “PGR Chemistry Lab Shots” – using LearnSci LabSims. Accessible everywhere, these resources allowed students to safely prepare for the lab and regain confidence.
900 LearnSci activities were undertaken in the first nine months of implementation among a community of 179 PGRs. The impact of this work has been recognised across Schools of the University. After sharing their impact in the Academic Community of Practice run by the Faculty of Science Digital Learning Team, other Schools expressed an interest in adopting the resources.
Postgraduate research skills training and in-person lab practice are integral to doctoral training programmes. The impossibility of accessing lab facilities during the COVID-19 pandemic, and the reopening of these labs with restrictions, meant most research training could not be provided in person. This took a serious toll on postgraduate research student (PGR) motivation, undermining their self-confidence in lab practice.
To solve this problem, the School of Pharmacy developed two learning resources - “PGR Biosciences Lab Shots” and “PGR Chemistry Lab Shots” – using LearnSci LabSims. Accessible everywhere, these resources allowed students to safely prepare for the lab and regain confidence.
900 LearnSci activities were undertaken in the first nine months of implementation among a community of 179 PGRs. The impact of this work has been recognised across Schools of the University. After sharing their impact in the Academic Community of Practice run by the Faculty of Science Digital Learning Team, other Schools expressed an interest in adopting the resources.
Wanting to find the impact of the use of a range of LearnSci LabSims during the COVID-19 pandemic, a paper-based questionaire was distributed to students in 2019 and 2020. These were devised to interrogate the students’ experience of the laboratory through consideration of the affective domain to their learning, the cognitive load induced by the learning environment and the level of their interaction with the simulations both outside of and during the on-campus classes. 519 responses were collected in 2019 (before LabSims were utilised) and 419 collected in 2020 (after LabSims were utilised during the COVID-19 pandemic). Additionally, nine student interviews were conducted in 2020 to both validate the questionnaire and to provide depth to the analysis. The results showed that students were highly likely to repeat the LabSims until they achieved the correct answers and that they tended to recall the positive and negative feedback provided by the LabSims during class time. The majority of the students discerned positive impacts on their laboratory experience as a result of having completed the LabSims prior to class. This positive outcome was, through a thematic analysis of student responses, attributed to the ease of utilising the resources, their relatively ‘correct’ visualisation of real-world equipment/techniques and the lowering of in-class anxiety (or an inverse increase in student confidence).
Wanting to find the impact of the use of a range of LearnSci LabSims during the COVID-19 pandemic, a paper-based questionaire was distributed to students in 2019 and 2020. These were devised to interrogate the students’ experience of the laboratory through consideration of the affective domain to their learning, the cognitive load induced by the learning environment and the level of their interaction with the simulations both outside of and during the on-campus classes. 519 responses were collected in 2019 (before LabSims were utilised) and 419 collected in 2020 (after LabSims were utilised during the COVID-19 pandemic). Additionally, nine student interviews were conducted in 2020 to both validate the questionnaire and to provide depth to the analysis. The results showed that students were highly likely to repeat the LabSims until they achieved the correct answers and that they tended to recall the positive and negative feedback provided by the LabSims during class time. The majority of the students discerned positive impacts on their laboratory experience as a result of having completed the LabSims prior to class. This positive outcome was, through a thematic analysis of student responses, attributed to the ease of utilising the resources, their relatively ‘correct’ visualisation of real-world equipment/techniques and the lowering of in-class anxiety (or an inverse increase in student confidence).
When face-to-face teaching returned in 2021-2022, teaching staff were challenged by a larger than usual first-year biology student intake, in conjunction with reducted room capacities due to social distancing restrictions. To maximise the time spent in the lab to develop core practical skills, LabSims were used as pre-lab activities to familiarise students with the practical procedures beforehand. Student feedback indicated these pre-lab activities lowered some of the barriers they experienced when attending lab classes; for example, they increased confidence and decreased apprehension. Teaching staff noted a reduction in the time and effort needed during lab classes to close the gap between different levels of experience in practical techniques seen amongst first-year students.
When face-to-face teaching returned in 2021-2022, teaching staff were challenged by a larger than usual first-year biology student intake, in conjunction with reducted room capacities due to social distancing restrictions. To maximise the time spent in the lab to develop core practical skills, LabSims were used as pre-lab activities to familiarise students with the practical procedures beforehand. Student feedback indicated these pre-lab activities lowered some of the barriers they experienced when attending lab classes; for example, they increased confidence and decreased apprehension. Teaching staff noted a reduction in the time and effort needed during lab classes to close the gap between different levels of experience in practical techniques seen amongst first-year students.
Meeting student expectations of assessment and feedback, in terms of slow return of marked work and inconsistencies in the marking process, has historically been a challenge. Although staff strived hard to meet the college deadlines, students did not perceive this as timely. Over-burdened marking loads of teaching staff meant more time was spent marking than teaching. LearnSci Smart Worksheets were integrated in modules across the Department of Biological Sciences in 2018, spanning topics from chemistry, physiology, molecular biology and ecology. All year 1 and 2 students now use Smart Worksheets on a regular basis. The time saved by staff has been conservatively estimated at over 440 hours each year; staff have regained an average of 21 hours of marking time for each Smart Worksheet. That time is now spent supporting students in other ways, improving teaching, or freeing up time for research. Student complaints about marking inconsistencies or slow return of work have fallen away. NSS scores have improved, and Overall Satisfaction scores of 100% for Biology and 93% for Biomedical Sciences were achieved in 2020. Students appreciate being able to gain the result from their efforts immediately and being given the prompts to help solve a problem if they are unsure.
Meeting student expectations of assessment and feedback, in terms of slow return of marked work and inconsistencies in the marking process, has historically been a challenge. Although staff strived hard to meet the college deadlines, students did not perceive this as timely. Over-burdened marking loads of teaching staff meant more time was spent marking than teaching. LearnSci Smart Worksheets were integrated in modules across the Department of Biological Sciences in 2018, spanning topics from chemistry, physiology, molecular biology and ecology. All year 1 and 2 students now use Smart Worksheets on a regular basis. The time saved by staff has been conservatively estimated at over 440 hours each year; staff have regained an average of 21 hours of marking time for each Smart Worksheet. That time is now spent supporting students in other ways, improving teaching, or freeing up time for research. Student complaints about marking inconsistencies or slow return of work have fallen away. NSS scores have improved, and Overall Satisfaction scores of 100% for Biology and 93% for Biomedical Sciences were achieved in 2020. Students appreciate being able to gain the result from their efforts immediately and being given the prompts to help solve a problem if they are unsure.
During the pandemic, the Department of Biological and Biomedical Sciences rolled out LabSims and Smart Worksheet resources to the whole department, across undergraduate and masters level teaching. A flipped classroom approach was taken in first and second-year labs, introducing students to the concepts and experiments covered before they entered the labs. At Masters level, the resources were used to help international students who had limited lab experience or lab access during their undergraduate studies. The department carried out a survey to assess the impact of the resources. It was found that 85% of students used LearnSci products in their modules. The LabSims appeared to give students more confidence in the labs, helping them be more prepared and therefore run their labs more efficiently. LabSims were postively received, with 65% of students agreeing they enjoyed the LabSims, and 60% feeling LabSims helped them understand concepts better. Smart Worksheets' impact was also assessed, and although used in fewer modules, 50% of students found them helpful. Staff commented how straightforward the resources were to use in Blackboard and how much they had improved student confidence. The LearnSci resources also enabled the department to maintain a good level of module pass rate despite the pandemic, staying similar to the previous year.
During the pandemic, the Department of Biological and Biomedical Sciences rolled out LabSims and Smart Worksheet resources to the whole department, across undergraduate and masters level teaching. A flipped classroom approach was taken in first and second-year labs, introducing students to the concepts and experiments covered before they entered the labs. At Masters level, the resources were used to help international students who had limited lab experience or lab access during their undergraduate studies. The department carried out a survey to assess the impact of the resources. It was found that 85% of students used LearnSci products in their modules. The LabSims appeared to give students more confidence in the labs, helping them be more prepared and therefore run their labs more efficiently. LabSims were postively received, with 65% of students agreeing they enjoyed the LabSims, and 60% feeling LabSims helped them understand concepts better. Smart Worksheets' impact was also assessed, and although used in fewer modules, 50% of students found them helpful. Staff commented how straightforward the resources were to use in Blackboard and how much they had improved student confidence. The LearnSci resources also enabled the department to maintain a good level of module pass rate despite the pandemic, staying similar to the previous year.
More fantastic examples of teaching innovation
Inspired by The Earthshot Prize, senior lecturer Nargis Gulzar created a workshop for undergraduate students that focused on finding digital support solutions in pharmacy. The workshop discussions emphasised the importance of embracing technology but also the need to be mindful of adding to health inequalities, such as lack of access and clinical algorithm bias. Students were tasked with identifying a local or global health concern and devising a solution using digital technology. This was coined WOP1 (World of Pharmacy1) in reference to COP26. Students were encouraged to create innovative solutions, not limited by a financial budget or practicalities. The students' ideas were judged by practising pharmacists, and feedback and advice were provided. Finally, students were invited to take part in a retrieval practice activity. Menti.com was used to document the main student take-homes from the workshop, and Microsoft Forms was used for the voting process. The WOP1 ideas, feedback and take-homes were summarised in a video presentation and shared with participants. The workshop highlighted the creative ability of students if given the opportunity, but also the lack of awareness of the diverse technology that exists in pharmacy.
In response to COVID-19 restrictions, an Interprofessional Education event usually hosted in-person was redesigned to be delivered virtually. The event was hosted on Microsoft (MS) Teams and involved approximately 100 postgraduate pharmacists, nurses and paramedics working through a complex case in teams, discussing actions and decisions based on unique professional experiences. The digital delivery offered more methods of communication that were not an option in face-to-face settings. Students were encouraged to use smaller group discussions, collaborate on live whiteboards and presentations, use the chat feature and individually research online. This increased accessibility within the session, as students could contribute in a format that best suited themselves. Student feedback received was overwhelmingly positive and there was a higher engagement observed, compared to the in-person event.
With reduced access to laboratories due to the COVID-19 pandemic, the School of Life Sciences designed a series of super-labs for undergraduate and postgraduate students to attend, either in-person or online via an interactive live stream using SMOT cameras. LabSims were used school-wide to prepare students for these super-labs and utilised to engage live-streaming students. Lab classes were re-designed to incorporate the key psychomotor skills and synoptic learning across modules with degree course relevance. Each super-lab was supplemented with pre-sessional LabSims to cover lab safety and concepts relating to the superlab. Additional quizzes and background information were also provided via Blackboard. The super-labs were followed with tutorials which included real-world scenarios, interviews with scientists, problem-solving and data analysis. Additionally, students who elected to participate via live-steam had a dedicated tutor to answer questions and access to LabSims to complete the complimentary activities carried out in the on-site labs. Students who participated via live-steam were asked which aspects of the super-lab they found most valuable, with 34.6% answering "Not having to travel to university and save time", and 19.2% answering "being able to attend the session from my safe space". On-site and online students also agreed or strongly agreed with the statement "Completing the pre-LabSim activity supported my learning for when I attended". The impact of the pre-super-lab activities was also noted by academics, with one commenting they were "Genuinely impressed with how good my groups' basics of pipetting were" after they had completed the 'Operating a micropipette' LabSim.
Unique opportunities to design innovative online content presented themselves with the shift to distance learning during the height of the COVID-19 pandemic. A team of student educators was assembled to partner with faculty members in a 'Students-as-Partners' course development collaboration. Articulate Storyline software coupled with Brightspace, LON-CAPA and Office 365 were utilised to build short screen-capture video content and interactive quiz-style questions. This was married with lab content through a 360° interactive lab tour, experimental videos delivery to allow recording of data/observations in real-time, and the ability to make experimental mistakes and see the results of those errors. Students were further supported as they could choose the way they wished to view an experiment, which greatly helped those with vision deficiencies (e.g. colour blindness) or inadequate technological devices (e.g. devices with low-resolution). Over 50 custom interactive online modules (containing over 1000 videos!) have been created and delivered to over 3000 students from various faculties, receiving high praise from students. The success of these modules can be directly attributed to the “Students-as-Partners” model through which they were built, which has been recognised institutionally with an Educational Leadership Award for Collaborative Teaching.
The first year Physiology of Organisms course aims to provide an integrated understanding of how organisms function, to support subsequent specialisation in a wide range of biological subjects, starting with animals before moving on to plants. The transition to plant science was found to be challenging for students with a lot of new and unfamiliar terminology not covered in pre-university education. Plant Science Primers were created that introduced key terms, paired with quizzes to consolidate information presented. Questions within the Primer used the ‘interactive with multiple tries’ setting within Moodle, allowing feedback to be tailored to each incorrect answer and repeat attempts.
Students indicated that confidence in their understanding of the terms increased and they were better able to visualise plant anatomy having completed the quizzes. Two further topics, plant cell structure and photosynthesis, were requested by the students and have been created using the preferred interactive quiz plus handout format for the 2021-22 academic year. The student response to, and success of, this project suggests that this primer template could be used effectively to overcome terminology and familiarity barriers in other scientific disciplines.
Laboratory classes have always faced the challenge of needing to balance safety, pre-laboratory material and assessment, in addition to the practical laboratory component. Even prior to the COVID-19 pandemic, there was a shift to present some pre-laboratory content in an online format, with a goal to better manage the cognitive load of students when preparing for a laboratory. Common stumbling blocks within the context of first-year chemistry labs usually involved mathematical concepts. Lightboard technology was used to create a variety of videos covering topics including heat capacity, dimensional analysis and titrations. The videos encompassed areas of first-year chemistry at the University of Western Australia, including several on organic chemistry and reaction mechanisms featuring expert lecturers in the field. Students responded via an initial survey that they enjoyed the videos, citing them as being clear and informative. They felt that the lightboard approach suited mathematical concepts, and student suggestions for further topics led to the aforementioned reaction mechanism videos. As an example, of the 118 surveyed students who had watched the first error analysis video, 92% responded either ‘Good’ or ‘Excellent” when asked how they would rate the pre-lab lightboard video as a learning resource.
Partnership between the University of South Wales (USW) and Northwest Normal University (NWNU) enables students from China to progress to the final year of the BSc Medicinal and Biological Chemistry degree course at USW after completing three years at NWNU. The partnership brings prestige to both universities and collaboration across continents is invaluable. With the shift to online learning and restricted travel between China and the UK during the COVID-19 pandemic, content was modified to be delivered online. Use of the Direct LearnSci platform enabled NWNU students to access LearnSci resources even without USW VLE access. Labsims and Smart Worksheets supplemented synchronous distance learning delivered on MS Teams. The resources allowed teaching staff to monitor student engagement, provide instant feedback and therefore scaffold the learners' experience, building confidence both in their English communication and concept knowledge.
Molecular Methods (MM) is a lecture, computer and laboratory-based course in which students gain experience of cutting-edge molecular biology techniques offered to both undergraduate and postgraduate students. As a result, the course caters to students studying a range of degree specialisms with varying backgrounds in molecular biology. Practical benchwork is an essential part of this course, which ordinarily includes a five-day in-person laboratory session. Due to COVID-19 restrictions, the course had to be delivered entirely online. Topic-specific worksheets, videos, quizzes and LabSims were delivered via VLE in a ‘Moodle book’ split into five chapters and completed over five days. Students followed the experiments in the context that they would normally be used, rather than as disjointed academic exercises. The online labs were supported through MS Teams, incorporating peer-to-peer learning with staff assistance. To further support the students' understanding of the processes involved in qPCR, a virtual reality app was embedded into the final day of the Moodle book. Fortuitously developed prior to the pandemic in collaboration with Sublime Digital, the app was modelled on a laboratory at the university. Originally created to be operated in-person, it was adapted to permit MM staff to remotely lead live sessions for small groups within the 3D laboratory environment via Zoom. Student confidence and understanding of the processes involved in planning and performing their own experiments increased, despite working remotely.
Articulate Storyline 360 acted as a voluntary activity for students to gauge their own knowledge on a particular subject which they had been introduced to in lectures. Patient-focussed case studies allowed students to relate their factual knowledge covered in class, to a wider 'real-life' context. This resource was introduced as it was discovered that, in some cases, information in addition to the lecture content may be required in order to answer questions. Students are required to develop the ability to seek out relevant sources and information from the resources, a valuable transferable skill. Students liked the real-world application of the material they were learning and it is shown to be an excellent means to provide additional learning resources for students.
Gamification in Higher Education has become an important aspect of the educator’s toolkit with many undergraduate students familiar with games such as Minecraft. Using Minecraft Education Edition (MEE), Worlds was developed to support lessons on biodiversity, to include a wider set of environments, provide a space where students could practise their Field Trip skills and be inclusive to all. Various biospheres allowed students to explore animal and plant life in a variety of environments, a much wider variety than in-person field trips offered. Students were able to develop and practise their field trip skills in a safe environment before embarking on an in-person trip, allowing them to learn through failure. The value of being able to continually repeat a process to develop a skillset is an important aspect of the biospheres. The use of MEE in education has been recognised to allow greater inclusivity, as shown by the work of O’Sullivan et al (2017) and Omar (2019). Student feedback was very positive, with comments stating the session was fun and an interactive way to learn about biodiversity.
Low-level social engagment and reluctance to speak or type questions in early level undergraduate students during online learning was unfortunately a common theme. To address this, short virtual educational games, such as crosswords, hangman, and millionaire, were embedded in the VLE. They used images and short answer questions to help students learn anatomical and biological terminology. Top scores for each game were visible to the class, encouraging engagement and a flurry of activity. A variety of games allowed students with different learning styles to reach the same outcomes. Students were able to choose the most suitable game for themselves, allowing for universal design for learning (UDL) principles to be included in virtual delivery.
With the introduction of lockdowns due to the COVID-19 pandemic, third-year Forensic Science students were unable to use the on-campus crime scene house facility for the large practical element of the course. 360-degree camera equipment and Adobe captivate software enabled the creation of an immersive virtual interactive crime scene, which students could access remotely via the VLE. Students were able to interact with the 360-degree crime scene photo through embedded hotspots, which provided questions that probed the students' knowledge. Prompts from searching strategies and close-up views of exhibits within the crime science were further made to feel authentic with the audio of a police officer. An anonymous feedback survey found 90% of students considered the software easy to use, and 100% judged the activity engaging and beneficial to their learning. As both written and audio instructions were incorporated, the activity was perceived to be highly inclusive to those students with learning difficulties. With the shift back to in-person teaching, the tool is now to be modified to act as an introductory resource for first-year students.
The Cancer Cell and Molecular Biology MSc course consists of taught and research elements to prepare students for final projects, most of which are challenging to experience remotely during the COVID-19 pandemic. PhD students undertaking teaching related projects, who had previously completed the MSc course, constructed virtual alternatives to emulate the wet lab practicals, theory and skills students were missing. Focussing on techniques of Western Blotting, they used LearnSci LabSims, MIT StarCellBio virtual experiments, and in-house recordings. Key laboratory techniques and the theory behind them were improved. For example, students became competent at pouring SDS-polyacrylamide gels for their own Western Blotting experiments, an essential research skill. Students gained data analysis and presentation skills, along with the experimental theory and understanding for them to be able to move into their research projects and future research careers with confidence.
Students were given the opportunity to enjoy a more active voice in practical health science online workshops that imitated those held in pre-COVID times, by implementing the Mentimeter app. Used to create presentations with real-time feedback, the app evoked discussions and mind-mapping in an anonymous safe environment. Students' experience of engaging in these virtually facilitated workshops and their use of a wide variety of feedback/engagement mechanisms in the app were analysed. Mentimeter added an increased level of fun and voice for students in virtual learning environments, sustaining concentration, engagement and interest levels.
Winners
Finalists
The ability of a chemistry student to consolidate and link theoretical concepts and experimental observations is a key skill. Through electronic lab books, pre and post-lab exercises linking LabSims, videos and questions were developed and implemented into teaching. These helped students visualise and understand experiments better, thus improving their laboratory experience. Students left the lab with a deeper understanding and more excited about studying chemistry.
The ability of a chemistry student to consolidate and link theoretical concepts and experimental observations is a key skill. Through electronic lab books, pre and post-lab exercises linking LabSims, videos and questions were developed and implemented into teaching. These helped students visualise and understand experiments better, thus improving their laboratory experience. Students left the lab with a deeper understanding and more excited about studying chemistry.
Fundamental laboratory techniques learnt in the first year of a variety of bioscience courses set the foundation for future lab work. An increase in students who could not attend their practical lab sessions over 2020 became a problem. All students were encouraged to use LabSims that demonstrated these fundamental techniques, such as preparing a spread plate and performing serial dilutions. Students unable to attend the wet-lab sessions were contacted individually and encouraged to engage with the resources and ask questions. Their learning was assessed via video chat, using home materials to stand in for lab materials, such as an agar plate and wire loop. No student was left behind or disadvantaged. All students, including those unable to attend wet-lab sessions, demonstrated how to competently carry out the techniques. Through the use of LabSims and other teaching materials, self-isolating and shielding students had a positive experience on-line and gained the confidence to work safely and skilfully in the lab in the future.
Fundamental laboratory techniques learnt in the first year of a variety of bioscience courses set the foundation for future lab work. An increase in students who could not attend their practical lab sessions over 2020 became a problem. All students were encouraged to use LabSims that demonstrated these fundamental techniques, such as preparing a spread plate and performing serial dilutions. Students unable to attend the wet-lab sessions were contacted individually and encouraged to engage with the resources and ask questions. Their learning was assessed via video chat, using home materials to stand in for lab materials, such as an agar plate and wire loop. No student was left behind or disadvantaged. All students, including those unable to attend wet-lab sessions, demonstrated how to competently carry out the techniques. Through the use of LabSims and other teaching materials, self-isolating and shielding students had a positive experience on-line and gained the confidence to work safely and skilfully in the lab in the future.
With the goal of advancing student data analysis skills and calculation practice through innovative teaching methods, a custom Smart Worksheet was developed. The basics of spectroscopic techniques such as IR, NMR and MS were taught in lectures, after which formative LabSims were attempted to allow the students to gain a firm understanding before the lab session. Students then calculated and analysed the structure of an unknown compound in the lab, via the Smart Worksheet. The dynamic visualisation improved student engagement and allowed for more creative understanding of concepts. The immersive process between theory and practical developed core skills in problem solving, data processing and operative thinking. Average module marks increased tremendously from 55% in the previous year without Learning Science resources, to 71% within the following academic year.
With the goal of advancing student data analysis skills and calculation practice through innovative teaching methods, a custom Smart Worksheet was developed. The basics of spectroscopic techniques such as IR, NMR and MS were taught in lectures, after which formative LabSims were attempted to allow the students to gain a firm understanding before the lab session. Students then calculated and analysed the structure of an unknown compound in the lab, via the Smart Worksheet. The dynamic visualisation improved student engagement and allowed for more creative understanding of concepts. The immersive process between theory and practical developed core skills in problem solving, data processing and operative thinking. Average module marks increased tremendously from 55% in the previous year without Learning Science resources, to 71% within the following academic year.
To ensure all postgraduate students continued to develop and build their laboratory experience, a bespoke Practical Skills and Professional Practice module was created to allow for the enforced lab restrictions. Small group project online sessions were implemented that directed the students to the most appropriate LabSims to demonstrate techniques linked to data sets that they would then analyse in the seminar. In preparation for laboratory sessions, students reviewed LabSims, alongside protocol review and experimental design. Students who engaged with this process reported that they were better equipped and more confident on the forthcoming laboratory task.
To ensure all postgraduate students continued to develop and build their laboratory experience, a bespoke Practical Skills and Professional Practice module was created to allow for the enforced lab restrictions. Small group project online sessions were implemented that directed the students to the most appropriate LabSims to demonstrate techniques linked to data sets that they would then analyse in the seminar. In preparation for laboratory sessions, students reviewed LabSims, alongside protocol review and experimental design. Students who engaged with this process reported that they were better equipped and more confident on the forthcoming laboratory task.
COVID-19 introduced unprecedented barriers to delivering vital first year “lab skills” modules. Meeting learning objectives was a priority, but delivery was logistically impossible. Therefore, on-campus labs were replaced with fortnightly virtual labs, each containing relevant LabSims, Smart Worksheets, a discussion board and drop-in sessions. A single-day socially-distanced on-campus 'Skills Camp' at the end of the trimester allowed students to utilise their new experimental skills in real life. Students arrived with a high level of understanding and confidence. By placing Learning Science resources at the core, it remained possible to co-deliver theoretical principles with practical elements to meet module learning objectives.
COVID-19 introduced unprecedented barriers to delivering vital first year “lab skills” modules. Meeting learning objectives was a priority, but delivery was logistically impossible. Therefore, on-campus labs were replaced with fortnightly virtual labs, each containing relevant LabSims, Smart Worksheets, a discussion board and drop-in sessions. A single-day socially-distanced on-campus 'Skills Camp' at the end of the trimester allowed students to utilise their new experimental skills in real life. Students arrived with a high level of understanding and confidence. By placing Learning Science resources at the core, it remained possible to co-deliver theoretical principles with practical elements to meet module learning objectives.
Under COVID-19 restrictions lab time was limited, so ensuring students arrive in class fully prepared was vital. Demonstrations and discussions all eat into valuable bench time, and with multiple repeats of lab classes, a centralised resource for students ensures a consistent learning experience and effective use of the limited lab time. A combination of Learning Science LabSims and self-produced videos were developed and integrated into the VLE/LMS. Students were required to complete these in order to access further materials, including schedules and Smart Worksheets. This approach was successful, with students starting lab work faster and a reduction in the number of accompanying questions. There was also an increase in the quality of data generated in class.
Under COVID-19 restrictions lab time was limited, so ensuring students arrive in class fully prepared was vital. Demonstrations and discussions all eat into valuable bench time, and with multiple repeats of lab classes, a centralised resource for students ensures a consistent learning experience and effective use of the limited lab time. A combination of Learning Science LabSims and self-produced videos were developed and integrated into the VLE/LMS. Students were required to complete these in order to access further materials, including schedules and Smart Worksheets. This approach was successful, with students starting lab work faster and a reduction in the number of accompanying questions. There was also an increase in the quality of data generated in class.
Lab reports in the Cell Biology module were growing time-consuming and complex. This resulted in marking delays and overall student dissatisfaction. Smart Worksheets were designed for lab classes, mirroring the original lab reports. LabSims were also incorporated to prepare students in advance. As a result, hundreds of hours of marking time were saved, causing increases in student satisfaction, module pass rate, and overall grades. The Smart Worksheets and LabSims improved student engagement and understanding, despite COVID-19 restrictions.
Lab reports in the Cell Biology module were growing time-consuming and complex. This resulted in marking delays and overall student dissatisfaction. Smart Worksheets were designed for lab classes, mirroring the original lab reports. LabSims were also incorporated to prepare students in advance. As a result, hundreds of hours of marking time were saved, causing increases in student satisfaction, module pass rate, and overall grades. The Smart Worksheets and LabSims improved student engagement and understanding, despite COVID-19 restrictions.
More fantastic examples of teaching innovation
In first-year chemistry, the reporting and marking process was proving too long-winded, meaning students often lost the opportunity for meaningful feedback. When lockdown hit, all teaching was moved online, which created additional challenges. Smart Worksheets were integrated within experimental procedures, and replaced written reports across two first-year chemistry courses, allowing for immediate, consistent feedback. In spite of the shift to online learning, students were more engaged with the lab programme and more likely to complete the reports than in previous courses.
Developed lab skills are vital in the field of forensic science and, due to COVID-19, a vital microscopy practical had to be suspended. Therefore, a virtual alternative was required. Four microscoscopy LabSims were combined into a single LabSim Assessment, allowing creation of a virtual lab session. This was complemented by an engaging quiz. Developing this LabSim Assessment was a game changer for the module, allowing them to teach microscope skills in an engaging and interactive way, without students having to come onsite.
When COVID-19 forced all classes online in early 2020, LabSims became the cornerstone of the online replacement labs. Resources were found to match every technique typically encountered in the first-year labs and incorporated into VLE/LMS quizzes. These, along with online teaching sessions and two on-campus lab sessions, enabled students to develop and consolidate their practical skills. Students were found to pick up the techniques easier than the previous cohort and responded positively when asked about the impact of the LabSims.
COVID-19 threatened to significantly hamper delivery of autumn lab practicals. Due to social distancing, capacity was drastically reduced. This required a rapid solution to deliver learning outcomes without the same volume of in-person lab practicals. A series of replacement virtual labs were designed, covering a range of experimental methods. At the end, there was a short quiz to reinforce comprehension and provide feedback. The virtual lab garnered positive feedback from students and was adopted by several faculty members. Teaching staff were grateful for the ability to rapidly develop virtual versions of their labs. Student feedback suggests that 80% found the LabSims really useful for visualising each step of a procedure.
It became clear that students needed a platform of support to maximise the psychomotor benefits of laboratory experiences. First implemented into teaching in 2018, LabSims increased preparedness and Smart Worksheets consolidated the theoretical and data handling aspects of the practicals. Students were asked to evaluate their self-efficacy in the laboratory, comparing experiences before and after using Learning Science resources. Overall, LabSims and Smart Worksheets were found to have provided a significant benefit to the students, both in terms of their self-efficacy scores and in reducing anxiety. This enabled a solid basis to maximise the psychomotor benefits of laboratory experiences.
Due to COVID-19, all biosciences students were to be taught remotely for the Autumn term. This posed concerns, especially for first years who hadn't been able to develop practical skills. "Lab In A Box" was developed to enable first-year bioscience students to practice their lab skills remotely, from their homes. Sent to their door, "Lab In A Box" contained all materials and PPE to carry out seven experiments linked to the term module teaching including histochemical straining and blood smearing. Learning Science LabSims were incorporated throughout, with further links to resources being made available upon completion. 'Lab In A Box' enabled the students to gain a deep foundation of lab skills in preparation for a return to on-campus labs.
Since 2018, Smart Worksheets have been developed to replace and enhance previous assessments in a wide range of modules.These dramatically improved student feedback, providing immediate support to ensure key learning outcomes were fulfilled. Feedback was timely and highly consistent, which reduced staff marking time and enabled more 1:1 support to be provided. Bioscience LabSims were also completed by students leading up to practicals, helping to familiarise them with the equipment and procedures. They increased student confidence and made more efficient use of lab time.
When teaching restrictions were introduced due to the pandemic, it was vital to ensure the continuation of the students’ learning. LabSims allowed students to make the most of limited laboratory time as they learnt the basics of the experimental methods at home beforehand. After each lab class, students repeated the LabSims, reinforcing the learning. Smart Worksheet were also used as post-lab activities to develop the students' understanding of data analysis and calculations.
With the aim of providing timely formative feedback to the increasing student foundation year cohort, Smart Worksheets were implemented within a lab-based module. Students performed pairs of experiments, the first involving data entry and calculations, with immediate feedback from a formative assessment. The second experiment was similar but the assessment was summative, with the feedback and support within the Smart Worksheet turned off. This process drastically reduced staff marking time, improved consistency and fairness in marking and provided students with immediate, individualised feedback.
Looking to enhance student learning and engagement during the shift to an online format, LabSims were integrated into teaching. LabSims supported the online teaching of Mendelian genetics by simulating parts of the laboratory experiences and reinforcing theory taught in lectures. Students were well prepared for their COVID-secure lab session, confident in the use of instruments, having already gained the foundational knowledge before entering the lab.
COVID-19 restrictions created the need for an online laboratory experience. It needed to provide an engaging learning experience equivalent to face-to-face labs, allowing all students to meet the learning outcomes. A workflow of formative activities was created incorporating LabSims, video demonstrations, posters, narrated mini-lectures and quizzes. Learning Science LabSims were used to formatively assess the students' ability to carry out and understand lab techniques such as pouring agar plates and gram staining. A visually-striking and informative online equivalent to practical classes was created and enjoyed.
With the aim to increase self-study skills, Smart Worksheets were implemented that encompassed all aspects of chemical experimentation and data reporting. They were designed to improve students' ability to: problem solve, calculate, risk assess, use instrumentation, interpret graphical data and prepare experiment methods in a standard, concise literature style. Students gained confidence and familiarity working with more in-depth calculations. Due to immediate feedback and reduced marking, the worksheets freed up staff time for more one-to-one support sessions for students who required it.
In response to the COVID-19 pandemic, transition from comprehensive contact-based teaching to an online format was facilitated. However, the main goal in introducing an online virtual lab programme was to use it beyond the remote online learning situation. Historically, first year students came ill-prepared for laboratory sessions due to lack of practical laboratory experience at school level. The Learning Science pre-lab library, including LabSims, videos and guides, were used to improve student confidence and competence in the lab, supporting online teaching. The activities enhanced student knowledge of practical content, enabling them to understand links between theoretical and practical aspects of experiments. Students were well prepared for contact lab sessions.
During the COVID-19 global pandemic, a blended teaching approach was adopted incorporating online lectures and wet laboratory sessions. Many students however required an alternative to face-to-face laboratory teaching due to either shielding or self-isolating, and therefore mirrored wet and remote practical labs were created. Remote learners used a variety of LabSims that mirrored the skills students used in the face-to-face wet labs. This allowed student learning to be supported, skills to be acquired and learning outcomes to be achieved by all, no matter the learning environment.
Autumn 2020 brought about the challenge of arranging an online induction week for first-year undergraduate and masters programmes. A fictional scenario was created based on a group of research staff at the school working on bioactive compounds extracted from medicinal plants and testing their potential as anticancer drugs. A variety of LabSims were used along with pre-compiled data sets to reenact the experiment. Outcomes were later discussed in groups, and a scientific poster was presented to their peers and personal tutor. At the end of the induction week, students had developed their teamwork and problem-solving skills, made connections with peers, engaged in communal learning and became familiar with online platforms.
Effective cognitive load of students in complex learning environments, such as laboratories, was a major focus. With an aim to improve this, chemistry and bioscience libraries of LabSims were implemented into teaching across multiple programmes of study. Formative lab proformas and pre-lab activities were used as an assessment for learning tools to support students. This approach resulted in a 13% improved average performance score for 2019/20 compared to the previous two academic years. Having already implemented Learning Science resources into teaching, necessary changes to the delivery of learning due to COVID-19 were swift and effective. LabSims and Smart Worksheets were partnered with university-filmed videos to create whole assignments which met the criteria of the module.
In response to the pandemic, all first and second year labs were taught online. This required a suite of resources to completely replace face-to-face learning, allowing students to learn and feel supported through a difficult time. Drylabs were created which incorporated LabSims, videos, guides, quiz questions and Smart Worksheets. Students received randomised data, which allowed them to work through problems relating to real lab data, and received real-time feedback on their work. Feedback from students and staff was overwhelmingly positive, and the approach encouraged other schools in the university to use Learning Science resources in their teaching.
In response to pandemic restrictions, first year biology lab durations were reduced. Students needed to be prepared to acquire the same level of technical skill in a shorter time period. LabSims and Smart Worksheets were used to engage students in the lab techniques within pre-lab activities. Fundamental lab skills were gained, which resulted in confident, knowledgeable and competent students. Students felt prepared for their lab and welcomed putting their new skills into action.
Confidence in mathematics and data processing is very important. Whilst support was provided through interactive workshops, it was found that some students hid or were not fully engaged, due to them working in groups of four. In order to support the second year students better and ultimately build confidence, a formative Smart Worksheet was developed. This upskilled the students and ensured all had the mathematical skills to succeed, whatever their educational background. Now every student performs the calculations individually, educators can instantly see who is struggling and provide targeted support to those who need it most. Formative use of the Smart Worksheet means it can also be used as a revision tool.
When COVID-19 restrictions were implemented, hands-on practical lab skills needed to be taught effectively in an online format. After watching demonstration videos, students carried out series of LabSims to practice the lab techniques in a virtual environment. Completion of the LabSims allowed students to meet practical skill learning objectives established in the specifications of the course, without stepping foot in a laboratory.
In response to the shift to online learning, first year biochemistry students completed a two-part capstudy co-created by the module's Student Lecturers. LabSims were used formatively to improve students' understanding of practical lab techniques and a summative journal article then assessed the student's scientific writing skills. Previously a simple lab report, the journal article enhanced and extended the level of challenge to allow the students to recognise the components of a written lab report, analyse data, and use literature to support interpretation of results.
As COVID-19 restrictions forced lab practicals for the Basic Immunology module to stop, LabSims were implemented alongside other VLE/LMS tools to teach about molecule separation methods. Once students' knowledge was secure through the completion and repetition of LabSims, application-style questions forced them to apply their new understanding in problem-based real life situations. The approach allowed a wider range of lab techniques to be covered than the traditional lab sessions, and student engagement increased.
The aim was to improve accessibility and inclusivity to students for whom English is a foreign language on a chemistry module - a part of the Undergraduate Preparatory Certificate Programme. LabSims and Smart Worksheets were used to guide the students through a structured analysis of their experimental outcomes. This included calculations, graphing and qualitative observations. To increase student engagement in non-evaluated pre-lab activities, a ChemStar* reward system was introduced. This resulted in an increase in student engagement in pre and post-lab activities, increasing overall satisfaction and learning outcomes.
Wanting to future-proof and improve the learning environment of a first year biochemistry module, historically unpopular with poor pass rates, Smart Worksheets were implemented into teaching. These included a bespoke Smart Worksheet supporting an enzyme kinetics lab. Using their own data, students performed series of complex calculations, learning from their mistakes as immediate feedback was provided. Both the first-time pass rate and the average coursework mark increased greatly. In addition, marking time was dramatically reduced from approximately 200 to 6 staff hours.
Wanting to future-proof a core first year biomedical science module, paper-based assessments were converted into an online format: Smart Worksheets. These enabled the delivery of a virtual lab experience that maintained engagement and improved student lab skill performance even during COVID-19 restrictions. Students entered data directly into the Smart Worksheet during lab sessions, enabling an increase in awareness of transcription error, use of correct units and scientific notation. Feedback was automatic and timely, allowing academics to focus on higher cognitive skills such as data interpretation, and allowing students to work and practice at their own pace.
The first undergraduate bioscience lab - aiming to enhance student skills in micropipetting, solutions and serial dilutions - needed improvement in student preparedness, the paper-based lab book and its marking consistency. Micropipetting LabSims and video demonstrations enabled students to prepare before entering the lab and bespoke Smart Worksheets provided online pre and post-lab assessments, which gave consistent and timely feedback. The overall atmosphere of the lab session was much more relaxed and enjoyable, creating a more effective learning environment.
Graduates with high laboratory skill competency are invaluable to companies. COVID-19 restrictions reduced the opportunities to perform lab-based competency assessments and training at Aston. LabSims enabled students to practice key competencies virtually, and a custom Smart Worksheet mirrored the lab-based assessment, providing a training tool. Students were well prepared for their socially distanced lab competency assessment, even though face-to-face teaching was drastically reduced.
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