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This video is a trailer fot the 'Employers to Mathematical Sciences Students' video series which includes:
Why study maths?
What do Employers Look For?
Why are Maths Graduates Sought After?
Why are Soft Skills Important?
Are Industrial Placements Helpful?
What do Graduate Training Schemes Provide?
What Advice Would You Give Undergraduates?
The videos were produced as part of the Curriculum Impact project based in the School of Mathematical Sciences, Queen Mary, University of London with support from the Institute of Mathematics and its Applications, as a part of the National HE STEM Programme.
London Metropolitan University has recently conducted a major review of its Mathematical Sciences undergraduate provision and new courses will be offered to students in 2012-13. It was felt important that design of the curriculum should have input from employers; with course designers collaborating with representatives of industry to ensure that their teaching is also relevant and up-to-date.
This report was commissioned to consider the challenges faced by employers recruiting and upskilling STEM skilled employees in the London and South East Region. It details the STEM skills challenges faced by employers in the region, with their existing workforce, particularly those who have not experienced Higher Education, and with new graduates in STEM disciplines. It relates to the workforce in both STEM and non-STEM related sectors. The report seeks to identify specific skills shortages and recommend working methodologies for engaging HEIs in providing relevant Workforce Development (WFD) for the current workforce to address the skills issues identified.
This project will pilot the development of work-based learning resources for production staff in the chemical industry, to improve their understanding of basic chemical processes and managing health and safety aspects of their work. The project arose from the desire of employees to understand more about the chemical substances they work with, and for employers to increase the knowledgeability of their workforce, to their commercial benefit. Delivered via blended learning (online and face-to-face delivery), completion of our course will carry the award of 60 credits at HE Level 1 (NVQ Level 4).
Members of the team are exploring different models for running the drop-by station espressoMaths at Glenside for 2011/12 in the light of comments from the focus groups and from informal discussions with students.
Initial observations from the evaluation suggest people found the course really helpful. Several suggested they would have preferred a longer session to cover the content.
This document outlines the marking criteria for the 2011 EPS Grand Challenge.
The IOP has been working with specialists to develop material to support departments looking to teach Biological Physics to undergraduates. The resources are free for all users.
The resources are grouped into modules, with each module consisting of two to three lectures worth of material.
Lecturers can choose to incorporate either complete modules, or elements of modules, into their degree programme. They can pick and choose the material from the IOP’s specially designed Biological Physics website.
Modules include:
- Biological Molecules
- Thermodynamics
- The Cell
- Energy
- Molecular Machines
- Regulatory Networks
Additional multi-media resources, such as video interviews with scientists and journalistic news articles, which help to round out the teaching material have been included on the main Biological Physics website.

Biological Physics by The Institute of Physics as part of the National HE STEM Programme is licensed under a Creative Commons Attribution-NonCommercial-NoDerivs 3.0 Unported License.
The following video is an output from the project: "Increasing public awareness of the key role of mathematics underpinning STEM disciplines" led by Trevor Hawkes at Coventry University.
Bob's Misadventures in Maths: http://www.mathscareers.org.uk/viewItem.cfm?cit_id=383232
This project was undertaken to encourage engineering lecturers to engage with or lead engineering outreach within their Higher Education Institution (HEI). The project was undertaken in two stages. The first stage looked at existing success within the regional HEIs to identify effective practice, current motivators and to capture the baseline status of outreach. The second stage involved the development, piloting and rollout of an outreach support package and resource pack that could be used in all HEIs. Ultimately the HEIs themselves would deliver outreach activities to schools and colleges. The project involved a number of HEIs within the region as well as other organisations such as STEMNET, local Education Business Partnerships (EBPs) and relevant commercial organisations. As well as the outreach support pack and staff development resource pack, tangible project outcomes include an increased number of trained and registered STEM Ambassadors and a greater level of outreach delivery.
The HE-STEM initiative aims to give employers, employees and members of the public, easy and available access to knowledge in the fields of science, technology, engineering and mathematics (STEM).
This can be given through the form of traditional full degrees or specially designed short courses, tightly designed for high industrial relevance and “real world” application.
The project aims to up skill work force in the regional industry in the STEM sectors, develop and run CPD courses in the subject areas that have been identified as industrially relevant, directly engage the regional industry by running focussed and specialist information events, organise CPD courses (fee chargeable) in targeted areas and further the collaborations between HEI and industry. The set of CPD events planned to be initially offered on a non-credit bearing basis is in future expected to be built into credit bearing modules fitting into a program of flexible mode study resulting in certificate, diploma and higher degrees counting in measurable work based learning. This will help to embed new knowledge into the industry and inform curriculum developers with real industry needs hence contributing to address the National STEM programme agenda in this sub-region.
Following consultations with British Engines, RSLC and Siemens establishing in-depth understandings of existing training activities and materials, new and specific work-based learning modules were developed and then ‘contextualised’ to respond to client demands. There have now been a number of student enrolments from all three partner companies ranging from apprentices to those in ‘workshop manager/team leader’ type roles and technical staff with no Higher Education experience. A total of 7.33 FTE are engaged in this project and details of the students can be found in the appendices of this report.
Whilst still very early in this project’s life cycle (5th December 2012 commencement date), good progress has been made in moving towards the aim of developing an online portal where students can enhance their profile through the creation of online video CV’s.
This project aimed to improve engineering students’ employability by enabling them to capture their work experience (including any non-discipline related work) and develop the skills needed by sector employers. During the capturing process, students are required to outline the activities they undertake and reflect on them.
The Science & Discovery Centres project entails the creation of a facility where learners, teachers, parents and careers information advice and guidance professionals can explore and begin to understand the ‘journey’ from school to university and into the workforce.
Working in partnership with Midlands Science & Discovery Centres to develop and pilot an innovative, flexible, scalable model for transfer into other public venues across England and Wales in a cost effective and sustainable way.
Transition to Work: Engaging Students with the career benefit of Chartered Status.
To work with Professional Bodies to develop a dedicated resource to be used within STEM departments to introduce students to the career and personal benefits of engagement with Professional Bodies and the opportunities to acquire ‘Chartered Status (CChem, CPHys, CEng, CMath). By engaging students with the process of becoming a chartered professional, and examining the non technical or employability skills required of a chartered professional, this project also aims to raise students awareness of the importance attached to employability skills by STEM employers.
This case study describes a project in which we aimed to contextualise the teaching of electronics to a large student group that does not major in in the discipline through a case study design approach developed across the entire module. The target circuit design measures mechanical force or load - important phenomena in the students’ core study area. Design ideas and analysis tools are introduced as required to progress the design rather than being grouped towards the front of the teaching as is often the case. A pilot study has been completed and a large group activity is currently underway.
On civil engineering courses at Coventry University, the presence of two types of student with relevant work experience has allowed a study of realistic project work to take an interesting perspective. The students are: (1) part-time students in the workforce, who study on day-release, and (2) full-time students who have spent a year-out sandwich placement in industry. Semi-structured group interviews with a total of 52 students have been carried out by four members of academic staff in such a way that no member of staff has interviewed students they are currently supervising.
The aim of the project is to embed good practice from the University of Plymouth with respect to a coherent STEM approach to School Liaison work at UWE. It is recognised that to attract students to study STEM subjects at university, it is necessary to enthuse school pupils before they make subject choices at GCSE and A-level.
The ability to communicate mathematical and scientific ideas to a range of audiences and through a variety of media is a very important key skill for students in STEM subjects. So also is the ability to reflect on challenging experiences such as volunteering and STEM ambassador activities and make sense of their implications for future personal development.
The project team was successfully formed in March, with a project worker employed from March 7th. Since then, we have undertaken a review of STEM Outreach and WP activities across South West higher and further education institutions and had a good response rate
As this project is student-led, there is potential for the students to build employability skills as part of the project (e.g. project management, communication skills).
Progress to recruit mentors specifically for STEM students has progressed steadily though not significantly. 24 mentors specifically in HESTEM/RAE roles have now been recruited and 16 mentees across both projects. Despite extensive steps being taken to approach local businesses, professional associations and business networks, recruitment of mentors allied to engineering and maths has been underwhelming. Many state the pressures of the economy being their main reason for not being able to devote staffing resource to this project at present.
All stakeholders in Higher Education are increasingly aware of the importance attached to the additional skills students should be gaining at University, over and above their course-specific skills. Students are concerned, particularly with the large rises in tuition fees imminent, that courses will provide them with the full range of skills necessary to successfully gain graduate level employment.
This project investigated the potential for engineering employers to accommodate short-term (summer) placements as an alternative approach to year-long sandwich placements. 112 companies were approached for their opinion on short-term placements and the range and extent of professional skills that students could develop during a summer in industry. Feedback from 37 employers indicated an overall positive perception and short-term placements were considered largely beneficial to both company and student. Employers agreed that good communication was the key skill that they were looking for and that students would develop their project and time management skills, as well as improving commercial awareness, during their summer experience.
In Yorkshire, Humber and the Northeast, learning from the London Engineering Project (specifically with regard to good practice in the use of undergraduate students as ambassadors for STEM) has been shared and embedded into nine higher education institutions (HEIs) in this region. The training has been delivered by the project team to undergraduates and staff at each institution with the acknowledgement that the staff would be able to re-deliver this training to their students (and other staff) in future years. The overall aim of this project was to ensure that the information and skills delivered during this training remain within the participating HEI to be used for their own needs in the future.
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