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Promoting engagement and more importantly retention of girls in STEM

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To reshape and better up skill the future workforce, the focus must begin with education, as “STEM education underpins innovation and plays a critical role in economic and business growth” (PwC, 2015). Further, education in STEM is recommended as being the key to broadening community understandings of what STEM is saying and doing about the complex problems facing society, now and in the future (Office of the Chief Scientist, 2013).

Young people need to be digitally competent, adaptable and adopt core competencies that will enable them to respond to the ever-changing workforce (CEDA, 2015). STEM is a key driver of innovation and entrepreneurship that can significantly impact on the economy (PwC, 2015) and 21st century skills are recognised as a key component within a STEM skills set that enable young people to achieve success in our evolving workforce (World Economic Forum, 2016).

Increasing the engagement of young people in STEM will enable the building of aspirations for a lifelong journey in STEM. There are currently inequities that exist in STEM in Australia. Girls, students from low socio-economic status backgrounds, Aboriginal and Torres Strait Islander students and students from non-metropolitan areas are currently less likely to engage in STEM education and are at higher risk of not developing high capabilities in STEM-related skills (Education Council, 2015). As a result, these groups are more likely to miss out on the opportunities STEM-related occupations can offer.

To increase our STEM workforce, a priority needs to be made to harness the STEM talents within these groups. Currently, only 16% of STEM qualified people in Australia are female (Office of the Chief Scientist, 2016). Besides there being the requirement for equity in the workforce in terms of pay and career progression for women (Prinsley, et.al., 2016), a significant priority needs to made to promote the engagement and retention of underrepresented groups in STEM.

Practical insights for implementing STEM programs: targeting girls

There are a diverse range of barriers and drivers that inhibit or enhance the engagement and retainment of girls in STEM-related pathways. The drivers often vary depending on the barriers that arise. The diversity of these barriers vary from country to country and for girls of different backgrounds. This issue deserves dedicated research to be completed within the Australian context to best identify the specific barriers that exist for girls in this country, and the key drivers for engaging Australian girls. Through the Fellowship research, observations were made around the key challenges and strategies required to engage girls from the perspective of the organisations visited in different countries.

Challenges/Barriers observed for girls engaging with STEM

  • The fear of failure and lack of confidence of young girls in STEM
  • The lack of relevance to everyday life, STEM being an abstract construct
  • Lack of links to the ‘humanness’ around STEM
  • Parents/Caregivers lack of understanding and therefore lack of support towards STEM pathways
  • Misconceptions and stereotypes perceptions around STEM industries and professions
  • Lack of funds to access opportunities for disadvantaged girls
  • Lack of role models in STEM industries and post-secondary education, particularly in leadership positions
  • Challenges around the culture of STEM industries and support for women to thrive
  • Lack of clarity on STEM careers (including job titles) and professional activities.

Messaging: Effective messaging can attract girls to consider STEM and help girls to envision themselves as STEM professionals, as well as help to support their key influencers. This includes the consideration of effective messaging strategies from marketing to role model interactions.

Key tips for effective messaging:

  • Use adjectives to describe and characterise STEM professional roles and activities.
  • Have role models and volunteers share their interests and activities outside of their STEM-related activities.
  • Develop resources for individual STEM fields for targeted messaging and information.
  • Evaluate STEM program and organisation media for unconscious bias, and ensure diverse representation in media.

Girls-only opportunities: Offering girls-only experiences and learning spaces provides the opportunity for girls to be empowered and feel comfortable to question, experiment and lead in STEM. By structuring these safe environments girls are more willing to try and experiment with STEM.

Key tips to design positive girls-only opportunities and spaces:

  • Provide a comfortable and safe learning environment.
  • Create a gender-neutral environment, free of “STEM stereotypes”.
  • Provide opportunities for girls to connect with female mentors in STEM.
  • Ensure the environment supports girls to try, play and fail without judgement.

Family involvement: The involvement of family, especially parents, in STEM learning experiences is invaluable in providing support for girls engaging in STEM experiences. Parents are role models and key influencers of a girl’s career pathway considerations. Involving family in STEM, not only enriches a girl’s experiences, it also connects STEM into the home.

Key tips to promote family involvement:

  • Host orientation and family evenings that family members can be involved in.
  • Provide updates for family members on achievements and opportunities Authentic connections: Connecting with real world experiences that make an impact and diverse female experts for support and inspiration, can provide girls with authentic STEM connections and opportunities that promote sustained engagement.

Authentic Connections: Connecting young people with real world experiences that make an impact and diverse female experts for support and inspiration, can provide girls with authentic STEM connections and opportunities that promote sustained engagement.

Key tips to enable girls to build authentic connections:

  • Industry visits and experiences.
  • STEM projects that solve compelling problems, with real life contexts for ‘social good’.
  • Mentorship programs where girls link with diverse female STEM experts.

This blog includes excerpts from Engaging the Future of STEM. Authors: Ms Sarah Chapman & Dr Rebecca Vivian. A study of international best practice for promoting the participation of young people, particularly girls, in science, technology, engineering and maths (STEM). This research was conducted as part of the 2016 Barbara Cail STEM Fellowship and funded by the Australian Government (Office for Women, Department of the Prime Minister and Cabinet), in partnership with the Chief Executive Women (CEW) Ltd.

Come and meet me at the Leading a Digital School Conference where I will be providing authentic international and national examples that exemplify the promotion of engagement and retention of girls in STEM.

For reference list please refer to: Engaging the Future of STEM
 

Does the lightboard improve learning? The first empirical research.

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I am pleased to report on the first peer-reviewed research investigating video learning using the lightboard. I have been eagerly awaiting this research ever since I made my first lightboard video.

Firstly to clarify, the lightboard is a large glass board on which the instructor writes and draws whilst they teach, facing the camera. The board is filled with light by LED strip edge lighting. This makes the instructors’ writing “pop out” against the black backdrop. The lightboard is referred to by a number of names including forward board, learning glass, and in this study a transparent whiteboard.

In 2016, a study identified that video styles in which the instructor writes and draws in real time is more beneficial for student learning than static images. The study also found that learning is enhanced when the instructors’ hand is visible. My blog post on this paper can be found here.

This present study compares a video where the instructor teaches on a traditional whiteboard with a video where the instructor uses a transparent whiteboard. The study measured student learning in a posttest immediately after the video or after a delay of 7 days. The study also evaluated students’ perceptions of the video styles.

An example of the transparent lightboard

The results were that the students who viewed the transparent whiteboard video performed significantly better in the immediate posttest than the students who viewed the traditional whiteboard video. The authors proposed that the transparent whiteboard was more effective for student learning for two reasons. Firstly, there is educed occlusion with the transparent board. With a traditional whiteboard, the instructor frequently occludes text and drawings as he is writing. This obstruction prevents the instructor from cueing to the relevant information at the time that they are verbally explaining the content. The second reason the authors proposed for the improved learning with the transparent board was increased social cues. Having the instructor face the students and make eye contact increases the social cues and student engagement.
Students’ preferences were also evaluated using a survey. Students who viewed the transparent whiteboard video reported a greater rapport with the instructor and student engagement was significantly higher.
A second experiment measured whether the improved learning was preserved over a one-week duration. The learning improvement was not significantly better than the whiteboard. However, the authors acknowledged that the students were not incentivised to remember the information. The authors recommend that further research should be conducted in authentic setting where students are incentivised to remember the video content.

This first study is very encouraging for the use of the lightboard. Especially in subject areas like STEM where there are significant amounts of complex spatial representations.

For further information on how to make a lightboard or make lightboard videos, check out this post.

Fiorella, L., & Mayer, R. E. (2016). Effects of observing the instructor draw diagrams on learning from multimedia messages. Journal of Educational Psychology, 108(4), 528.

Flipped Learning, a brief grounding in the research literature, by a teacher, for teachers

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Flipped Learning, a brief grounding of the research literature

I was recently challenged to show the effectiveness of flipped learning through research by a member of leadership at my school. What follows is a brief summary of the research that I had at hand that situates a reader generally within the literature and opens some avenues for further exploration. It also gives a good overview of the general direction of flipped learning research with many recommendations of where further research needs to be aimed to produce a greater understanding of the methodology. Keep in mind this is simply an excerpt of my current understanding, as a full-time teacher, not currently participating in any part-time study. I am pursuing research into flipped learning, purely as a hobby rather than any structured academic study. For a broader overview of flipped learning in regards to adding to the research base, I would recommend this blog by Robert Talbert: http://rtalbert.org/what-does-the-research-say/

With that in mind, I hope that teachers interested in the concept of flipped learning, educational technology or using instructional video in their classroom would find this an interesting starting place and jumping-off point for further investigation of these ideas in their own practice. Or in a pinch, use this to justify the interest and emerging nature of flipped learning and some of its positive findings in regard to learning outcomes for students.

Firstly, as meta-analyses are all the rage at the moment, let us begin with these two-literature review/meta-analysis style articles that give us a good aerial view of the research and a good grounding in some of the already completed research.

The Flipped Classroom: A Survey of the Research

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This document provides a good summary of the research circa 2013, it sets out some of the pedagogical practices and ideas that underpin the practice and allow it to be used. It is an approachable and easy to read piece that defines key words and ideas well and establishes some of the intellectual lineages of flipped learning. It is especially valuable for people with a limited understanding of flipped learning in the way that it outlines key ideas that most teachers and educational practitioners will find familiar and easy to engage with. It focuses mostly on qualitative information (numbers) and is therefore easy for a person wired in this way to engage with quickly and without requiring much of an analysis of complex results.

A critical review of flipped classroom challenges in K-12 education: possible solutions and recommendations for future research

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A very recent paper (2017) that comments on the paucity of K-12 flipped learning research and discusses some of the issues that are presented by this pedagogy for teacher workload and other key factors. Appendix 1 provides a summary of a number of studies and their results, whilst Appendix 2 provides a brief summary of the ways that class time was being used in each of these studies. This is useful in the way that it can be used to understand the myriad ways that flipped learning can be used to transform the classroom environment and the activities that take place there. It must be noted, however, that a number of the studies cited do not very closely align with flipped learning as it is generally defined or best practice. As a result, some of the studies show less than favourable results due to a number of reasons, which I will refer back to in a future piece of writing. It also gives a good overview of the way that different uses of this methodology can be applied and as a shortcut around where it would be best to begin a practice of flipped learning for an individual or school aimed in a positive direction. In summary, the paper shows that without looking too closely at what is or isn’t flipped learning, all studies that purported to be flipped learning showed positive results or no significant loss or gain (stayed comparable). Looking more closely, those studies that made use of video in the individual space and used group discussion or some other form of active learning in the class space showed improvements in student’s learning outcomes. These two simple factors being present could be used as a rough proxy for best practice and something to be expanded upon in further research. The two aforementioned appendices also show that deviating beyond the accepted knowledge of best practice in regards to flipped learning does not show a positive result for student outcomes.

The Impact of the Flipped Classroom on Mathematics Concept Learning in High School

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This paper is a more recent (2016) study that took a small scale (82 participants) approach and used the traditional lecture vs flipped learning approach. Notably, this paper used genuine high school students, aged 14-15 years, a group that many practitioners tend to presume will not complete the pre-class work of watching videos. This study showed that this was not true but rather showed that the FL participant group outperformed the control group and were highly satisfied and positive towards the methodology. Notably, the study showed that the ‘low achievers’, as recognised via pre-test results, had greater success than the control group who received conventional teaching. It is suggested that this is due to these students with higher learning needs receiving more attention from teachers and greater time for the deeper discussion and engagement with mathematical problems.

The flipped classroom and cooperative learning: Evidence from a randomised experiment

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A recent study (2016) that comparing the flipped learning classroom with lecture-based lessons. It found a 12% increase in test scores when comparing these two methodologies, in favour of the flipped learning classroom. The study drew its participants from undergraduate students and used a simplistic multiple-choice style test form of testing. The sample size (235 students) is significant and indicates support for flipped learning, but also more specifically the types of active, collaborative pedagogies that it allows to take precedence over traditional lecture style teaching.

Optimizing Learning From Examples Using Animated Pedagogical Agents

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A laboratory-based, experimental based study (2003) that looks specifically at the levels of knowledge retention by undergraduate students based on the learning/teaching resource involved in the delivery of the content. The content was presented through three forms: text only, text and audio, or text and ‘animated agent’ (a small cartoon character who gestures and refers to key elements of the text). I interpret this study firstly in the sense that a teacher, known to the student will always be more effective than the noted ‘animated agent’, as well as more knowledgeable. More simply, however, this study posits that learning through video is simply more effective than more traditional and conventional means. Extending this concept further, this seems to indicate that even without flipped learning being applied, but simply replacing learning resources from text or worksheet towards instructional video would show an improvement in knowledge retention just as was shown in this study.

Learning from Examples: Instructional Principles from the Worked Examples Research

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This study (2000) is a very exhaustive summary of cognitive load theory which I believe holds many connections and associations with flipped learning. I believe it also suggests a number of practices and understandings that should become mainstream within the practice of producing instructional video and flipped learning. Rather than go over some of the complex interaction between the pedagogy of flipped learning and Cognitive Load Theory (CLT), I would suggest you look over this short summary of how these ideas and those raised by the previous research study are applicable in this video I made on the topic here:

Overall, I hope this limited overview of some of the recent research on flipped learning has shown you some of the ways that different ideas are being applied under the umbrella of flipped learning. As well as giving you some things to provide to interested individuals to begin their own learning journeys into flipped learning and its applications in a variety of contexts. If you are interested in any of these ideas please let me know, or if there is anything that you believe here is improperly covered I would love to hear about it. You can email me on kolber.steven.s@edumail.vic.gov.au

I’ll also be presenting at the international flipped learning conference, RESCON in October 2019 – see https://www.resconanz.com/program