Year 12 Level 2 Practical Mathematics: A project-based modular course - Teacher's Guide, Module Outlines, and Pedagogical Exemplar (Inglewood High School, 2010)

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Authors: Michael Fenton
Cited by: 2

Abstract

Abstract This records a teacher’s guide and sequence of topic modules for a Year 12 Practical Mathematics course designed in 2009 and delivered at Inglewood High School, Taranaki, New Zealand, in 2010. The course was created in response to a specific institutional constraint: a cohort of Year 12 students who were not responding to conventional NCEA assessment-driven mathematics instruction and for whom the standard assessment pathway was producing neither engagement nor achievement. The course design treated that constraint as a design brief. All teaching and activities occurred in a mathematics classroom, not a science laboratory. The course was designed for a roll of approximately 20 Year 12 students. At the start of the course, a senior leader added a number of Year 13 students to the class without notice or additional resourcing, increasing the roll to 28. Planning and resourcing adjustments were absorbed at no notice. The approach continued to function under these conditions and the Year 13 students also responded positively; a circumstance that further supports the low-floor/high-ceiling character of the course design. Rather than reducing expectations, the course reconceived what Year 12 mathematics could look like for this cohort: eight project-based modules: robotics and electronics web design game design medical miracles crime scene investigation codes and secrets, myth busting, and personal interest As a student-led course, learners voted on the order of modules. Assessment was via project completion with peer and teacher feedback loops for formative and summative assessment. Cross-curricula Unit Standard credits (NCEA Level 1 and Level 2) were available to students with sufficient time management skills as a consequence of learning but were not the primary driver of the course. Teaching was for learning, not teaching to NCEA assessment requirements. The structural affordance exploited operated at two scales. At the NZQA system scale, Achievement Standards are organised by subject and Unit Standards by Field, Subfield, and Domain. NZQA does not require a course to draw its standards from a single subject, does not require teaching contexts to match the subject of the standard, and does not require all classroom activity to be directed toward assessment through NZQA standards. This policy flexibility is real and legitimately available to any school. It is almost never used because schools operate under a powerful cultural norm that equates teaching with NCEA standard-based assessment preparation and judges institutional performance on NCEA pass rates. The unit standards identified for this course were not confined to mathematics subject areas but included disciplines that use mathematics: physics, web design, programming, and mathematics history. Standards-based assessment tasks were available to learners as optional pathways relevant to real-world applications or vocational interests rather than as the driver of all classroom activity. At the institutional scale, the principal Angela Gattung had direct observational evidence of the educator’s teaching through the Nexus Research Group activities, previous hands-on science and physics teaching at the school, and learner success, including multiple regional Science and Technology Fair awards and a scholarship award to a Māori student. This accumulated pedagogical credibility made available a discretionary authority that school principals hold but rarely exercise. In this case, the authority to permit teaching for learning rather than teaching assessment tasks, accepting the institutional risk that the class would not optimise Level 2 NCEA pass rates in conventional subject areas. The structural affordance was not a gap in NZQA policy, it was a gap between what NZQA policy permits and what school culture ordinarily constrains. Angela Gattung’s evidence-based confidence in the educator’s pedagogical judgement temporarily suspended that cultural constraint. The materials deposited here include: the overarching course structure and assessment framework; individual module outlines for all eight topics; a unit standards cross-reference table; the student report template and cover sheet; a complete teacher-authored exemplar report for the Myth Busting module; the student survey feedback form used at the end of each module; and photographs of student work and classroom activities that do not identify individual students. Significance as primary-source evidence This document is deposited as a primary-source practitioner artefact. Its scholarly significance lies in five areas. As evidence for the Design by Subversion framework — pedagogical and institutional strands operating simultaneously. The course design demonstrates the four-stage process operating across two strands at once. The constraints (disengaged Year 12 students failing under conventional NCEA pacing, no access to a science lab) were framed as a design brief. The available system was studied at two scales: the NZQA qualification framework for its policy flexibility, and the school’s institutional culture for the conditions under which a principal might be willing to prioritise learning over metrics. The minimal workable method was built — eight modules, project-based, no specialist laboratory required, credits available but not compulsory, student topic choice as engagement mechanism — and validated by student engagement, attendance, and achievement evidence. The result is documented in these materials. As natural-experiment evidence. In the second school term the Deputy Principal, acting on instructions from the new principal who had arrived without prior knowledge of the educator’s work, directed the educator to stop the approved learning-centred programme and teach the same NCEA Level 2 Mathematics Achievement Standards as the school’s academic classes. These were the same assessments used to meet University Entrance requirements; a tertiary pathway of no interest to this cohort of students, and assessments that these students had already been assessed as unable to access before the course was created. The instruction was delivered through the formal management hierarchy, mid-programme and without notice, giving the educator no direct opportunity to present the pedagogical evidence to the decision-maker. No student subsequently passed any of the traditonal Level 2 NCEA assessments. Student motivation to complete work, interest in maths, and engagement with assessment-driven learning declined sharply. This sequence of measurable benefit under the original design, and then measurable harm after reversion to conventional assessment, constitutes primary natural-experiment evidence for the claim that institutional conditions were the operative variable. These were the same students, same teacher, and the same room. When the institutional conditions changed the outcomes diverged. The Design by Subversion framework describes institutional openings as time-bounded by the conditions that created them. Strategic patience — the practical wisdom dimension accompanying the methodology — identifies protected space dependent on a single leader’s trust as a specific vulnerability, and describes incremental accumulation of institutional evidence as the mechanism by which that vulnerability is reduced. The Inglewood High School case illustrates both conditions: the space existed because of Angela Gattung’s evidence-based confidence, not because of any structural change to the school’s operating assumptions, and it closed when her authority was replaced by one operating from different assumptions without that evidence base. The case also illustrates the framework’s validation logic for institutional subversion: closure of the opening by institutional counter-action, rather than by failure of the subversion itself, confirms that the opening was real and that the subversion was working while it existed. As documentation of the technical-to-pedagogical strand transition. This record connects three points in the body of work that have not previously been linked in a single document. The digital multimeter as data logger substitute (doi:10.5281/zenodo.19325413) is the technical strand — the instrument. RIGEL (doi:10.5281/zenodo.19334228) is the technical strand at larger scale — GameMaker as science instrument. This teacher’s guide, with its ghost detector exemplar, is the pedagogical strand — both instruments deployed in a classroom context where students build, test, and use them as the curriculum. The three records together document the technical-to-pedagogical strand transition that the Design by Subversion framework identifies as the normal operating sequence. As an instance of the “I wonder” disposition made visible in document form. The teacher-authored exemplar is not a record of student work. It is a demonstration of the investigative stance the course was designed to cultivate: an educator modelling genuine inquiry — identifying a question from personal curiosity, constructing the minimal instrument needed to investigate it, testing systematically, concluding honestly — so that students could see what authentic investigation looks like before attempting it themselves. The content — whether electromagnetic fields explain what television ghost-hunting shows describe as paranormal — was chosen because it is intrinsically interesting to the age group, testable with available materials, and models scientific scepticism applied to a culturally familiar claim. This is the “build it, test it, use it” pedagogy in its documentary form, predating the Open Polytechnic courses (2012–2017) in which the same disposition was modelled at scale to more than 800 in-service teachers. As an enactment of Stage 4 of the Design by Subversion framework. The deposit of this record on Zenodo is not only an archival act. It is the fourth stage of the Design by Subversion process applied to the Inglewood High S

Publication details

Journal / source
Zenodo (CERN European Organization for Nuclear Research)
Publication date
7 May 2026
Language
EN