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Man enough to study Physics? What do New South Wales Physics students say? August 7, 2017

Posted by Editor21C in Directions in Education, Secondary Education.
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by Jessy Abraham

The proposed Stage 6 Physics curriculum for New South Wales (NSW) has been lauded as a “return to science” and has been welcomed by science-education experts who regard the current curriculum as ‘soft’ and a ‘diluted’ version of physics (Robinson & Armitage, 2017).

In her 2017 Australia Day address, Professor Michelle Simmons criticised the “feminisation” of physics in NSW (Fitzpatrick, 2017). The use of the term feminisation refers to efforts whereby curriculum developers sought to make the current physics curriculum more appealing to girls by minimising rigorous mathematical problem-solving and replacing it with a qualitative approach. The new syllabus that will commence in 2018 will move away from this qualitative emphasis and the current ‘social-context’ approach to teaching physics and bring in a greater focus on content and quantitative rigour, including mandatory equation derivations and problem solving (Crook, 2017). Stronger emphasis will be given to learning scientific principles, theories and laws.

Topics with a descriptive nature, such as historical linkages and societal implications of scientific inventions will be largely eliminated (Physics Stage 6 Syllabus, 2017). While this has been applauded by critics of the current syllabus and University-based Physics educators, concerns about equity of access have also been raised. The concern is that an increase in quantitative rigour may perhaps lead to even sharper declines in physics enrolment numbers (Crook, 2017).

How valid are the perceived beliefs that the ‘dumbing down ‘of physics content by replacing mathematical focus with the life stories of scientists, historical development and societal impacts of their inventions, will appeal more to female students? Are male students naturally better at and inclined to problem solving, experiments and mathematical applications? Such perceptions exacerbate the ubiquitous gender stereotypes regarding the ‘masculinity’ of physics.

Results of my study conducted among 247 year 11 physics students (157 males and 90 females) from the Sydney metropolitan area did not support these claims. Male and female students who were continuing physics to Year 12 held high levels of interest value, performance perceptions and instrumental value (usefulness for personal career/study plans) in relation to physics, and there were no statistically significant differences for these values between the genders. Both genders displayed similar levels of high engagement with physics, and held low levels of stereotypes on the perceived masculinity of physics.

These observations were equally valid for students who were discontinuing physics, who possessed low levels of interest, performance perceptions and engagement with physics: they also held low stereotypical gender role beliefs. No significant gender differences were found. For the four modules in the current year 11 physics curriculum, in the majority of instances there were no consistent differences in how male and female students perceived the achievement motivational factors explored in the study.

When students were asked to rate various Year 11 physics topics based on their interest value, no significant gender difference was identified. Both genders indicated higher than average levels of interest in learning laws of physics, problem solving, experiments, relating to real life situations, contributions to humanity and the abstract nature of physics. However, regarding the much criticized topics such as ‘Lives of Scientists’ and ‘Historical Contexts of Inventions’, both genders displayed a marked lack of interest. This lack of interest was equally expressed by both genders.

Likewise, both genders described physics as “interesting, challenging, yet satisfying, and something that relates to everyday life” (male student, comprehensive school). Furthermore, participants’ qualitative responses tended to reinforce traditional views on the expected nature of physics. Students reported that they expected more mathematically oriented content, and ‘crazy calculations to experiments’ (female student, selective school) when they enrolled in senior secondary physics. Nevertheless, the enacted curriculum had ‘too much language orientation’ (male student, selective school). They wanted to see ‘less literacy, more scientific content’ (male student, comprehensive school). In relation to the historical and social contexts of inventions, and descriptive topics like The Cosmic Engine (a topic on Astrophysics), the majority found these  ‘boring, dull and not useful’ (male student, Catholic school). Interestingly students gave a strong emphasis to the instrumental value of physics and tended to view the subject as a preparation course of STEM courses at university.

The results of my study support the argument that senior secondary physics students may prefer the content and quantitative analytical rigour proposed in the new curriculum and the removal of certain sections in the current curriculum. This endorses the changes prescribed in new Stage 6 Physics syllabus. However, the popular misconception that ‘dumbing-it-down- for- females’ might increase its attractiveness was not supported. Issues around whether the new syllabus may aggravate equity of access to physics will need to be examined once the implementation of the new syllabus begins.

References

Fitzpatrick, S (2017, January 24). Feminisation of science a disaster, leading quantum physicist Michelle Simmons says. Retrieved from http://www.theaustralian.com.au/higher-education/feminisation-of-science-a-disaster-leading-quantum-physicist-michelle-simmons-says/news-story/8a432da4bce81e4fb51d91da9bf7a98b

Crook, S (2017, February 22). New physics syllabus raises the bar, but how will schools clear it? Retrieved from https://theconversation.com/new-physics-syllabus-raises-the-bar-but-how-will-schools-clear-it-73370

NSW Syllabus for the Australian Curriculum. Physics Stage 6 Syllabus (2017) NSW Education Standards Authority (NESA). Retrieved from http://syllabus.nesa.nsw.edu.au/assets/physics_stage_6/physics-stage-6-syllabus-2017.pdf

Robinson, N & Armitage, R (2017, February 21). New South Wales HSC syllabus gets overhaul with more complex topic. Retrieved from http://www.abc.net.au/news/2017-02-21/nsw-hsc-syllabus-gets-radical-overhaul-year-12-teaching-changes/8288000

 

Dr Jessy Abraham is a lecturer in Primary science and technology curriculum in the School of Education at Western Sydney University, Australia.

(Un)necessary teachers’ work? Lessons from England. July 17, 2017

Posted by Editor21C in Directions in Education, Education Policy and Politics, Primary Education, Secondary Education, Teacher, Adult and Higher Education.
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by Susanne Gannon

Disembarking at Heathrow a few weeks ago, my first purchase in pounds as always was a copy of The Times to read on the train into the city. The second page headline, “CR (Creative Original): Grades on schoolwork replaced by codes” (Bennett, 2017) caught my eye. Skimming the article in my dazed jetlagged state was not ideal for a critical reading but I snapped a photo with my phone of the final paragraph:

“In 2014 the government asked teachers to tell them what created unnecessary work. Three big areas were marking, planning and data management.”

I recognise the data deluge in schooling is now overwhelming, may be driven by externally imposed system imperatives and is not always put to use to improve student learning. However, I’ve spent my professional life as a secondary English teacher, tertiary teacher educator and researcher. I could not see how “marking” and “planning” are seen as “unnecessary work” for teachers.

Planning is surely at the heart of teachers’ work. Otherwise how do we claim our status as professionals? Ideally we don’t just wing it in the classroom, nor do we follow prescriptive scripts. Systematic, responsive, syllabus-informed planning of purposeful sequences of learning and meaningful resources are what make the difference for individuals and groups of students. Well-selected and fine-grained data about student progress (not necessarily only the numerical data that is favoured by educational systems) should of course inform such planning as skilled teachers identify gaps and opportunities for extension and tailor their planning to their students’ needs and their potential.

Having high expectations and creating the conditions – through careful and ideally collaborative planning – for students to succeed and to excel are hallmarks of quality teachers. These features are characteristic of exemplary teaching in disadvantaged contexts (Lampert & Burnett, 2015; Munns, Sawyer & Cole, 2013). Careful planning need not preclude flexibility, creativity and authenticity in learning and assessment practices, but conversely may enable these qualities (Hayes, Mills & Christie, 2005; Reid, 2013). As many of these authors stress, good planning is often underpinned by a disposition of teachers to become researchers of learning within their own classrooms. Where teachers are provided some agency and capacity to gather and use data then problems are less likely to be at the low level of time consuming and potentially meaningless “data management” that is perceived as “unnecessary work” by teachers in England.

Marking is of course close to my heart as a secondary English teacher and I have spent countless hours of my life providing written feedback on student work. Whilst I have become adept at designing and using outcomes based rubrics / criteria sheets since their introduction in the mid-90s with outcomes based assessment and curriculum, I have always endeavoured to provide tailored and specific feedback to students on their texts.

This for me is “marking” as a process, and I think of it – in ideal circumstances – as sometimes like a sort of dialogue on the page between student, text and teacher, and an opening towards further dialogue. It features in formative as well as summative assessment contexts (apart from exams). Now it features in the texts in progress that are thesis chapters for my current doctoral students. In a perfect world it is diagnostic, supportive, explicit and critical in combination and students will take heed. Portfolios, peer and self-assessment processes and tools can be incorporated. As Munns et al (2013) describe, sharing assessment responsibility is an important component of the insider school. The volume and pressure of marking has always been problematic however, when short timelines for results and sheer numbers of students across multiple classes work against ideal scenarios. My research into creative writing in secondary schools (e.g. Gannon, 2014) suggests how English faculties were able to work collegially to support senior students as they developed major works in English. Marking, at best, can be rewarding, encouraging and useful for students and for teachers.

Where, then, does the aversion to marking come from for teachers in England? The article in The Times does not provide any pointers towards the government survey of 2014, but is rather an announcement of a large randomised control trial to be funded by the UK-based Education Endowment Foundation, based on a Report reviewing written feedback on student work that they commissioned and recently published (Elliot et al., 2016). The opening of the executive summary of the Report provides further detail:

[T]he 2014 Workload Challenge [UK] survey identified the frequency and extent of marking requirements as a key driver of large teaching workloads. The reform of marking policies was the highest workload-related priority for 53% of respondents. More recently, the 2016 report of the Independent Teacher Workload Review Group [UK] noted that written marking had become unnecessarily burdensome for teachers and recommended that all marking should be driven by professional judgement and ‘be meaningful, manageable and motivating’. (2016, 4)

Well, of course! What has gone wrong in England that marking is not driven by these qualities. Are there lessons for us in Australia (yet again from England) of what not to do in educational reform? Although the report acknowledges that there is very little evidence or research into written marking, they nevertheless identify some inefficient and apparently widespread practices: triple-marking, awarding grades for every piece of student work (so that the grades distract students from the feedback), too many texts required from students, marking excessive numbers of student texts, provision of low level corrections rather than requiring students to take some responsibility for corrections/ improvements, and moving on without giving students time to process and respond to feedback.

Despite the caveat in the opening section, the report is worth reading in full (though it has been criticised by local critics e.g. Didau, 2016). Secondary teachers are much more inclined to put a grade on every piece of student work, they say (2016, 9). Unsurprisingly, offering clear advice on how a student may improve their work in a particular dimension seems to be more useful than broad comments (‘Good work!’) or excessively detailed and overwhelming commentary (2016, 13). Targets or personalised and specific “success criteria” may be effective, particularly where students are involved in establishing them (2016, 20; also see Munns et al., 2013).

It is in this part of the Report that the overall logic of the newspaper article becomes apparent. Buried well down into the subsection on “Targets” is the following comment:

Writing targets that are well-matched to each student’s needs could certainly make marking more time-consuming. One strategy that may reduce the time taken to use targets would be to use codes or printed targets on labels. Research suggests that there is no difference between the effectiveness of coded or uncoded feedback, providing that pupils understand what the codes mean. However the use of generic targets may make it harder to provide precise feedback. (2016, 20).

The Times headline is therefore not quite accurate. It seems that “Grades” will not be replaced by “codes” but rather that teachers’ written comments will be replaced by codes. In another article, “Schools wanted to take part in marking without grading trial” (Ward, 2017) this is called “FLASH Marking” and is an initiative developed in house by a secondary school in northwestern England that will be rolled out to 12,500 pupils in 100 schools (EEF, 2017). The school claims that teachers will now be able to mark a class of Yr 11 exam papers in an hour. Students will receive an arrow (at, above or below expected target), and codes such as CR = “creative original ideas”, and V= “ambitious vocabulary needed.”

It seems from these news stories (and presumably EEF will put up the design protocols on their website eventually) that two different factors are being measured – one is holding back grades and the other is using codes instead of written comments. I’m curious but ambivalent, after all at university it is now mandatory to use “Grademark” software for coursework students. This enables teachers to provide generic abbreviated feedback (“codes”) but also gives us the opportunity to personalize responses, and supplement these with an extended written comment, or even an audio-recorded comment. These are highly personalised and appreciated by students.

To turn back to the English example, I wonder whether the randomized control trial design (in this case an efficacy trial that will be evaluated by Durham University) means that participating schools will not be able to improvise around the conditions of the feedback? At least, if the reduction of feedback to codes proves not to improve student results, given the need for the control (or “business as usual”) group, the damage will be limited to only half the participating schools and students. The news articles are unclear about the purpose of the study – which is described as a way to reduce teacher workload more than to improve student learning. However the EEF project description also mentions, reassuringly, that the rationale is focused on student outcomes, as “specific, actionable, skills-based feedback is more useful to students than grades” (2017). The project will follow year 10 students in senior English classes through to the end of secondary school with a report to be published in 2021. Already, I can’t wait.

References

Bennett, R. (June 17, 2017). CR (Creative original idea): grades on schoolwork replaced with codes. The Times.

Didau, D. (May 18, 2016), The Learning Spy Blog.

http://www.learningspy.co.uk/assessment/marked-decline-eefs-review-evidence-written-marking/

Education Endowment Foundation (2017). Flash Marking. https://educationendowmentfoundation.org.uk/our-work/projects/flash-marking/

Elliot, V., Baird, J., Hopfenback, T., Ingram, J., Thompson, I., Usher, N., Zantout, M, Richardson, J., & Coleman, R. (2016). A Marked Improvement? A review of the evidence on written marking. Education Endowment Foundation. https://educationendowmentfoundation.org.uk/resources/-on-marking/

Gannon, S. (2014). ‘Something mysterious that we don’t understand…the beat of the human heart, the rhythm of language’: Creative writing and imaginative response in English. In B. Doecke, G.Parr & W. Saywer (Eds), Language and creativity in contemporary English classrooms (pp. 131-140). Putney: Phoenix Education.

Hayes, D., Mills, M., & Christie, P. (2005). Teachers & schooling making a difference: productive pedagogies, assessment and performance. Allen and Unwin.

Lampert, J. & Burnett, B. (Eds) (2015) Teacher Education for High Poverty Schools. Springer.

Munns, G., Sawyer, W. & Cole, B. (Eds). (2013). Exemplary Teachers of students in poverty. Routledge

Reid, J. (2013). Why Programming matters: Aporia and teacher learning in classroom practice. English in Australia. 48(3), 40-45.

Ward, H. (June 16, 2017). Schools wanted to take part in marking without grading trial. Times Education Supplement. https://www.tes.com/news/school-news/breaking-news/schools-wanted-take-part-marking-without-grading-trial

 

Dr Susanne Gannon is an Associate Professor in the School of Education and a senior researcher in the Centre for Educational Research at Western Sydney University, Australia.

Building STE(Mathematics) through overseas exchange with Australian Initial Teacher education students May 2, 2017

Posted by Editor21C in Community Engagement, Directions in Education, Primary Education, Secondary Education, Teacher, Adult and Higher Education.
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by Shirley Gilbert

More and more cross-cultural understanding is just one of the many standards that initial teacher education providers are required to demonstrate as part of their preparation of Initial Teacher Education (ITE) programs. The professional demands placed on ITE programs suggest that in building their accreditation requirements, different approaches should be made available to their ITE preservice teachers to meets this particular requirement, and each university differs in the way it prepares its Graduate students for this career stage of the National Professional Standards for Teachers (AITSL 2011 a, b, c; 2014; 2016).

The School of Education at Western Sydney University has been providing beginning teachers with the experience to develop lessons which address the Australian curriculum’s Cross Curriculum priority area – Asia and Australia’s engagement with Asia (Australian Curriculum, Assessment and Reporting Authority (ACARA)) since 2001.

Many ITE providers (universities and others) use overseas experiences as opportunities to explore the culture and traditions of a different country (AITSL; 2104). At Western Sydney University, the School of Education’s programs offer, in addition to the cultural aspect of an in country experience, the opportunity to its preservice teachers to teach in their chosen destination country. Providing an overseas opportunity not only builds teacher capacity and intercultural connections, but allows for ITE providers to be flexible and innovative (AITSL 2014) in the ways they prepare their graduate teachers. Our School of Education Overseas Professional Experience Programs (OPEP) has been running for many years, and develops our graduates in unique ways in countries such as Thailand, China, Taiwan, Malaysia. It is also hoping to develop a specialisation with Indonesia, with mathematics teaching being the primary focus.

In Western Sydney schools, pre-service teachers benefit from achieving a greater understanding of diversity: that diversity is required not only to engage learners, but to build upon the funds of knowledge they already bring to classrooms so that learning can be meaningful. These opportunities allow our preservice teachers to reflect on their own cultural assumptions, in their own teaching, in an applied way.

It is important to recognise that countries who are signatories to Southeast Asian Ministers of Education Organization (SEAMEO) are part of a regional intergovernmental organisation established in 1965 among governments of Southeast Asian countries who promote regional cooperation in education, science and culture in the region. The organisation was established on the 30th November 1965 and has 11 Member Countries; 7 Associate Members; and 3 Affiliate Members countries. Over the past fifty two years, SEAMEO has developed 21 centres throughout Southeast Asia, one of them is SEAMEO Regional Centre for Quality Improvement of Teachers and Education Personnel in Mathematics (SEAQiM), which is located in Yogyakarta, Indonesia.

I am working with the Director, Dr Wayhudi and his partner schools to scope out the possibilities for short term placements- specifically with a mathematics focus. Links are also being pursued in cooperation with SEAQiM with Western Sydney University  OPEP staff to secure grants to assist our students to participate in these overseas STEM experiences. Specialised teaching and professional development intensives in both science and mathematics have long been a focus in south east Asia.

This future cooperation with SEAQiM has possibilities for improving both primary and secondary teachers in our schools where teachers entering the profession in Western Sydney classrooms often have limited opportunities to develop themselves on a larger scale with mathematics throughout their regular practicums.

I am one of the two Overseas Professional Experience Coordinator’s in the School of Education along with Dr Son Truong, and am currently in Yogyakarta visiting the SEAMEO Regional Centre for Quality Improvement of Teachers and Education personnel in Mathematics (SEAQiM), and am using funds from my the Vice Chancellors Award 2016 to explore and develop additional opportunities in Asia for preservice teachers to undertake additional teaching opportunities in Science, Technology, Engineering and Mathematics (STEM). As part of my role with the School of Education working with the SEAMEO Regional Centre for Quality Improvement of Teachers and Education Personnel in Mathematics, I am striving to develop specific opportunities for our preservice teachers who wish to explore and improve their teaching in Mathematics, Science and English.

The School of Education has a long history of successful Overseas Professional Development in south-east Asia through both the New Colombo Plan Scholarship Program and the Endeavour grants scheme – however this current opportunity hopes to secure funding specifically for preservice teachers wishing to expand their portfolios in maths education. Australian preservice teachers enrolled (or intending to enrol next semester) in units 102075 Professional Practice 3 (PP3) (Secondary) or 101577 Classrooms Without Borders (CWB)(Primary/Early Childhood) will be eligible to participate in this STEM opportunity.

From this relationship it is expected that Western Sydney University students will form relationships with SEAQiM staff, partner school administrators, partner teachers and students, and with officers of the Yogyakarta State Educational Department. The accompanying Western Sydney University staff members will also form professional relationships with these groups as is evident in past joint publications and scholarly activities, and they will also form relationships with visiting academics from other SEAMEO countries (White; 2012).

Community service learning provides opportunities for preservice teachers to work in culturally and linguistically diverse sites and challenge themselves for the variety of sites they may enter into post their professional studies. The units PP3 and CWB are service learning units enabling Western Sydney University students to work in flexible and purposeful contexts that meet the needs of wider educational communities. These opportunities expand preservice teacher’s knowledge and understanding for Australian contexts when teaching their Cross Curricular Priority Area ‘Asia and Australia’ (ACARA, 2012).

The site at Yogyakarta provides a full range of teaching opportunities as well as ample opportunities to collect resources for the preservice teachers to build their own teaching toolkits back in Australia. The cultural sites include but are not limited to: Museum Negri Sonobudoyo, Pagelaran Karaton (Sultan’s Palace), Merapi Volcano Museum, Barabudur Mahayana Buddhist temple, Beringharjo Markets and Malioboro Road and surrounds.

Western Sydney University pathways to teaching and master’s program students are encouraged to visit the School of Education vUWS site for any additional information about tours on offer currently.

 

References

Australian Curriculum, Assessment and Reporting Authority (ACARA) (2012). Cross-curriculum priorities. Retrieved Monday, 10 April 2017 from http://www.acara.edu.au/curriculum/cross-curriculum-priorities

Australian Institute of Teaching and School Leadership. (2011a). Accreditation of initial teacher education programs in Australia: Standards and procedures. Carlton South: Education Services Australia.

Australian Institute for Teaching and School Leadership (2011b). National professional standards for teachers. Retrieved Monday, 10 April 2017 from http://www.aitsl.edu.au/docs/default-source/default-document-library/aitsl_national_professional_standards_for_teachers.

Australian Institute of Teaching and School Leadership. (2011c)Accreditation of initial teacher education programs in Australia: Frequently Asked Questions, Standards and Procedures. Retrieved Monday, 10 April 2017 http://www.aitsl.edu.au/docs/default-source/default-document-library/accreditation_of_initial_teacher_education_faq

Australian Institute for Teaching and School Leadership (2014). Early teacher development: Trends and reform directions. Report prepared for the Asia Society’s Global Cities Education Network. Retrieved Monday, 10 April 2017 from http://asiasociety.org/files/gcen-earlyteacherdevelopment.pdf

Australian Institute for Teaching and School Leadership (2016). Initial teacher education: Data report. Retrieved Monday, 10 April 2017 from http://www.aitsl.edu.au/initial-teacher-education/data-report-2016

White, A. L. (2012). Australian pre-service teachers overseas tour : implications for mathematics teaching and learning. (J. Dindyal, L. P. Cheng, & S. F. Ng, Eds.) Mathematics Education: Expanding Horizons : Proceedings of the 35th Annual Conference of the Mathematics Education Research Group of Australasia, 2-6 July 2012, Singapore , 769-776. Retrieved from http://math.nie.edu.sg/merga2012/index.aspx

 

Shirley Gilbert is a lecturer in the School of Education at Western Sydney University, Australia, and is one of the School’s coordinators of overseas professional experiences for the university’s pre-service teachers.

Are we stifling creativity at the start of the teaching-learning process? December 1, 2016

Posted by Editor21C in Directions in Education, Primary Education, Secondary Education, Teacher, Adult and Higher Education.
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By Mary Southall

With an ever increasing focus upon the need to develop graduates with high level creative, risk-taking, and entrepreneurial skills, it is more important than ever to explore our approaches to the teaching-learning process. Graduate teachers need to be able to design, plan and deliver exciting, engaging and innovative learning opportunities. This article argues that the approach to planning, whether formal or informal, needs to be considered in relation to developing creative learning activities and creative learning environments. We need to start questioning the processes we use to plan the types of learning environments and activities that encourage the development of creativity. This article explores different approaches to planning and asks, ‘are we using the most effective approaches to planning to ensure creative skills are developed?’

Rationalistic, technical curriculum planning has been the dominant model underpinning planning for teaching and learning for a generation or more in England and Wales (Parkay and Hass, 2000) and involves the use of a linear approach to planning, which begins with the specification of objectives and ends with a lesson evaluation. This dominant or ‘rational’ approach to planning is based on Tyler’s (1949) model of curriculum theory and practice, comprising a systematic approach based upon the formulation of behavioural objectives. This approach provides a clear notion of outcome, so that content and method may be organised and the results evaluated. It considers education to be a technical exercise of organising the outcomes or products of learning, whereby objectives are set, a plan drawn up and applied and the outcomes (products) measured. Snape (2013) provides an example of what he defines as ‘quality learning’ through such a technical, sequenced linear pathway, including: the intended learning; teaching episodes; opportunities for tangibly evidenced student work; and criteria for successful achievement.

Several alternative and adapted planning approaches are present in the current literature, which are particularly pertinent to when requiring a more creative, risk-taking approach to teaching and learning, for example in Technology education. The ‘naturalistic’ or ‘organic’ model, based on the work of Stenhouse (1975) and Egan (1992; 1997), was developed from the apparent conflict between the need to carefully specify learning intentions and the dynamic nature of classrooms, and was an attempt to emulate a realistic planning process based on the ‘natural’ interactions in a classroom. Naturalistic planning involves starting with activities and the ideas that flow from them before assigning learning objectives (John, 2006). Although lacking detail in terms of pedagogical requirements and consideration, this model does resonate with Perkins, Tishman, Ritchart, Donis and Andrade’s (2000) notion of ‘learning in the wild’, when learning settings are recognized as ‘messy and complex’ (Carr, 2008: 36). Perkins and Saloman (1992) argue for the need for learners to experience more ‘natural’ learning environments, with teachers’ planning procedures supporting this notion.

Within a creative or problem-solving learning space – for example, in a Technology education context – ‘wicked problems or tasks’ (Rittel and Webber, 1973) can be set. These are described as ‘problems of deciding what is better when the situation is ambiguous at best’ (Marback, 2009: 399), and support the ‘naturalistic’ model, as wicked problems are not solvable. These problems are contingent problems of deciding what to do. They require continual evolution and, as such, are based upon the continual morphing of ideas and idea development, through a problem- solving process (Kimbell, Saxton and Miller, 2000). Such a ‘naturalistic’ model requires teachers to plan and create realistic design scenarios in order for students to learn the authentic nature of design activity, thus allowing students to experience environments where experimentation and exploration are dominant approaches.

The ‘interactional method’ of planning, another alternative to the dominant model, stresses the interactive nature of learning and, therefore, learning objectives (Brady, 1995; Bell and Lofoe,1998). Whilst the ‘interaction’ model specifies the same design elements as the linear objectives model, the ‘interactional method’ planning process can begin with any of the elements. Based on this model, all curriculum elements interact with each other throughout the design/planning process and, therefore, the design of one element will influence and possibly change the design decisions for other elements. For example, method might be specified first, but altered later as a result of an assessment decision. From a practical perspective, this model makes it possible to specify learning objectives after all other elements have been decided (Bell and Lefoe, 1998).

The ‘articulated curriculum’ (Hussey and Smith, 2003: 360) provides a similar approach to the ‘interactional model’, where the respective elements exist in a state of mutual interaction and influence. Alexander (2000) compares this ‘articulated curriculum’ approach to planning to the structure of a musical performance, where the composition is analogous to the lesson plan, and the performance shifts according to interpretation and improvisation. This ‘responsive’ approach to planning requires the teacher to be vigilant of the learning progression within the class and respond accordingly, and is synonymous with the formative assessment principles of ‘feedback’ (Ramaprasad, 1983). Biggs’s (1999) notion of constructive alignment also supports this way of approaching planning for teaching and learning.

To allow students to develop creative, risk-taking, critical thinking and problem-solving skills, we as educators need to provide authentic opportunities for students to develop such skills. By using different approaches to planning, teaching and learning, a greater range of ideas are produced and consequently new and innovative teaching and learning environments are potentially developed. Arguably by generating a creative input into the initial stages of the teaching-learning process, we are more likely to not only produce a creative output, but maintain creativity and innovation throughout the process. I believe it is important for pre-service teachers to have the opportunity to explore different approaches to planning, to develop their own approaches and styles, and to identify planning approaches that support the nature of the subject being taught.

 

Bibliography

Alexander, R. (2000). Culture and Pedagogy. Oxford, UK: Blackwell.

Bell, M., and Lofoe, G. (1998). Curriculum Design for Flexible Delivery- Massaging the Model.  In R. Corderoy (ed), Flexibility: The Next Wave. Wollongong, Australia: Australian Society for Computers in Tertiary Education.

Biggs, J. (1999). Teaching for Quality Learning at University. Buckingham: SRHE and Open University Press.

Brady, L. (1995). Curriculum Development. Australia: Prentice Hall.

Carr, M. (2008). Can assessment unlock and open the doors to resourcefulness and agency? In S. Swaffield (ed.), Unlocking Assessment, 36-54, Abingdon, UK: Routledge.

Egan, K. (1992). Imagination in Teaching and Learning. Chicago: University of Chicago Press.

Egan, K. (1997). The Educated Mind: How Cognitive Tools Shape Our Understanding. Chicago: University of Chicago.

John, P. (2006). Lesson planning and the student teacher: re-thinking the dominant model. Journal of Curriculum Studies, 38 (4), 483-498.

Hussey, T., and Smith, P. (2003). The Uses of Learning Outcomes.  Teaching in Higher Education, 8 (3), 357-368.

Kimbell, R., Saxton, J., and Miller, S. (2000).  Distinctive Skills and Implicit Practices. In J. Eggleston (ed.), Teaching and Learning Design and Technology, 116-133. UK: Continuum.

Marback, R. (2009). Embracing Wicked Problems: The Turn to Design in Composition Studies.  National Council of Teachers of English, 61 (2).

Parkay, F. W., and Hass, G. (2000). Curriculum Planning. (7th, Ed.) Needham Heights, MA, USA: Allyn and Bacon.

Perkins, D. N., and Salomon, G. (1992).  Transfer of learning.  International Encyclopedia of Education, Second Edition. Oxford, UK. Pergamon Press.  [online]. Available at: http://www.cdtl.nus.edu.sg/Ideas/iot18.htm [Accessed on 31 March, 2013]

Perkins, D., Tishman, S., Ritchart, R., Donis, K., and Andrade, A. (2000). ‘Intelligence in the wild: a dispositional view of intellectual traits’. Educational Psychology Review, 12 (3), 269-93.

Ramaprasad, A. (1983). On the definition of feedback. Behavioural Science, 28, 4-13.

Rittel, H. J., and Webber, M. (1973). Dilemmas in General Theory of Planning.  Policy Sciences, 4, 155-169.

Snape, P. (2013). Quality Learning for Technology Education: An Effective Approach to Target Achievement and Deeper Learning. PATT conference, 137-145. Canterbury: University of Canterbury.

Stenhouse, L. (1975). An Introduction to Curriculum Research and Development. London: Heinemann.

Tyler, R. (1949). “How Can Learning Experiences be Organised for Effective Instructon?” Basic Principles of Curriculum and Instruction. Chicago, USA: University of Chicago Press.

 

Dr Mary Southall is currently the Curriculum Advisor for the School of Education, having worked in the UK as an independent education consultant for over ten years.  Prior to this, she worked as a design and technology teacher in a range of school contexts and was involved in the development of the National Strategies embedded in all secondary schools in England and Wales.

Place-based learning in teaching and teacher education November 1, 2016

Posted by Editor21C in Directions in Education, Engaging Learning Environments, Primary Education, Secondary Education, Social Ecology, Teacher, Adult and Higher Education.
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By Katherine Bates

Tell me and I forget. Teach me and I remember. Involve me and I learn.  (Benjamin Franklin)

Place-based education is part of the broader ecopedagogical movement in education that connects learners with and immerses them in their natural locale (Kahn, 2010; McInterney & Smith, 2011). These connections are understood to be best developed authentically, over time and with gentle positive immersions in the natural world (Sobel, 2014). This ‘in-place’ approach is also argued to be a built on process, connecting students with their local community through repeated immersions in order to develop a sense of agency with and planetary citizenship for the lived-in world (Hung, 2014; Sobel, 2014). Place-based education therefore plays an important role for engaging students with notions of ‘place’, identity’ and ‘community’ and, for developing local-global connectivity and citizenship in these times of significant environmental challenge (McInerney, Smyth & Down, 2011; Misiaszek, 2016).

Place-Based learning is also a particularly useful and energising approach in light of today’s Australian Curriculum reform and eco-pedagogy paradigm shift (ACARA, 2012). With the inclusion of an eco-pedagogical approach in curriculum and syllabus documents, immersing children in the natural world, it moves from an optional fringe pedagogy to mainstream when implementing the Humanities and Social Studies Learning Areas in the Australian Curriculum and the NSW BOSTES History and Geography Syllabuses for the Australian Curriculum (ACARA, 2012; NSW BOSTES, 2012). However, if we are to implement this approach in a school context for deep learning about the world around us, educators need to leave indoor classrooms so that students can be immersed in the natural world ‘up close’ (Kahn, 2010; Knight 2016; Liefländer et al, 2015).

One of the core aspects in the Human Society and Its Environment subject in the Master of Teaching at Western Sydney University provides future teachers with a sense place by involving them in place-based activities within their local university environment. These strategies provide future teachers with a starting point for understanding hands-on, nature-based enquiry and provide model lessons for implementing positive immersion nature based explorations in their future primary Geography and History teaching contexts.

Many of these place-based tasks are supported by using technology in the learning experience and in the creation of learning objects back in the classroom thus making technology an invisible tool in the learning rather than a tokenistic add on (Hunter, 2015). One of the popular choices amongst the selection of activities is the nature audit. Vertical or horizontal metres are measured out and using a mobile device, photos of the components within the metre space are taken. Students then audit the collected data, categorising the manmade and natural objects, the interaction between the objects and the dominance of, or integration between these components (Fig. 1). The photos are then generated into a ‘Zoom’ slide show with a sustainability theme.

comp-1Figure 1: Nature Audit

 

 

 

Kinaesthetic experiences are also popular with our preservice teachers such as matching paint colour swatches with colours from the natural and man-made local environment (Fig. 2). Students then ‘colour-map’ their environment, collecting data on colour dominances and tonal preferences. These data mapping activities are connected with earlier work in using Google maps, geo-mapping and geocaching for learning about local and global communities with school aged students. Conversations and ‘fat questions’ are raised about the dominant colours in our children’s school and in their wider communities. Other kinaesthetic activities involve recording natural and man-made sounds in their environment, which instigates interesting discussions about the impact of sound and the ‘white noise’ in children’s seemingly ‘always on’ world.

comp

Figure 2: Colour in my world task

 

The strategies described here are but a sample of the place-based inquiries that our preservice teachers take part in but are ones that demonstrate the opportunities for rich discussion that these activities generate in terms of implementing place-based education with primary aged students. Moreover, the significant positive in task engagement that transpires when groups of preservice teachers work collaboratively in and about the natural world reinforces the different ways of knowing and learning that the outdoors offer all ages. As facilitators of these activities our team always looks forward to working with our groups as we share a common passion for supporting our future teachers in developing students’ connections with nature and develop pro-environmental agents of change (Liefländer et al, 2015).

 So children can thrive and grow strong in challenging times ahead, let us engage them in nature, ethical conversations, and the building of caring and peaceful communities, in their schools and beyond.  Winograd, K. (2016, p 266)

 

References:

Australian Institute for Teaching and Leadership (2016). Australian Professional Standards of         Teachers, Author, Sydney.

Hung, R. (2014). In Search of ecopedagogy: Emplacing Nature in the lLght of Proust and Thoreau. Educational Philosophy and Theory, 46(13), 1387-1401.

Hunter, J. (2015). Technology Integration and High Possibility Classrooms: Building from TPack,

Routledge, New York and London.

Kahn, R. (2010). Critical Pedagogy, Ecoliteracy and Planetary Crisis: The Ecopedagogy

Movement. New York: Peter Lang.

Liefländer, A., Fröhlich, G., Bogner, F., & Schultz, P. (2015). Promoting Connectedness with

Nature through Environmental Education, Environmental Education Research, 19(3), 370-384.

McInerney, P., Smyth, J., and Down, B. (2011). Coming to a Place Near You? The Politics and

Possibilities of a Critical Pedagogy of Place-Based Education, Asia-Pacific Journal of Teacher Education, 39(1), pp 3-16.

Misiaszek, G. W. (2016). Ecopedagogy and Citizenship in the Age of Globalization:

Essential Connections between Environmental and Global Citizenship Education to Save the Planet. International Review of Education, 62(5), pp 587-607.

Sobel, D. (2014). Place based Education: Connecting Classrooms and Communities. Green

Living:  A Practical Journal for Mindful Living, 19(1), 27-30.

Winograd, K. (2016). Education in Times of Environmental Crisis: Teaching Students to be Agents of Change, Routledge, New York and London.

Dr Katherine Bates is a sessional academic in the School of Education at Western Sydney University, Australia.  She currently lectures in Human Society and Its Environment at Western Sydney University and also in Literacy and Numeracy in Secondary Schooling at the University of Wollongong. She has had extensive experience as a classroom teacher across ES1-S4, EAL/D and literacy support, as well as senior leadership roles in curriculum and assessment with the Department of Education and Sydney Catholic Education.

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