Do ‘High Quality’ Math Materials Add Up? (Opinion) – Education Week

Do ‘High Quality’ Math Materials Add Up? (Opinion) – Education Week

 

Report on Instructional Materials and Alignment with Sustainable Development Goal 4 (Quality Education)

Introduction

This report analyzes the efficacy of designated “High-Quality Instructional Materials” (HQIM) in mathematics education and examines their alignment with the principles of Sustainable Development Goal 4 (SDG 4), which aims to ensure inclusive and equitable quality education. The analysis reveals a significant disconnect between materials rated as “high-quality” based on standards alignment and those proven to be effective in practice, posing a challenge to achieving robust learning outcomes.

Critique of High-Quality Instructional Materials (HQIM) Framework

Discrepancy Between Designation and Pedagogical Efficacy

A critical examination of HQIM reveals that their designation often depends on adherence to specific curriculum design criteria rather than on proven effectiveness in fostering rich and rigorous instruction. This raises concerns that the current framework may not adequately support SDG 4, as it can prioritize theoretical alignment over practical student learning and mastery.

Teacher Autonomy and Use of Alternative Resources

In response to perceived deficiencies in official textbooks, many educators supplement or replace mandated materials. Key issues with school-approved texts include:

  • Suboptimal sequencing of topics.
  • A scarcity of application-based word problems.
  • – Insufficient scaffolding within exercises to build student competence.

This practice of utilizing external or traditional materials, such as Mary P. Dolciani’s 1965 Modern Algebra: Structure and Method, represents a grassroots effort by educators to ensure quality education when standardized materials fall short.

Impact of Curriculum Standards on Pedagogy and SDG Attainment

The Influence of Common Core on Instructional Materials

A foundational issue is that many HQIM are designed to align with state standards derived from the Common Core. These standards often contain embedded pedagogical directives that favor “reform math” ideologies. This approach emphasizes conceptual exploration, sometimes at the expense of procedural fluency, which is a critical component for achieving the numeracy skills outlined in SDG 4 and required for the innovation and industry targeted by SDG 9.

Case Study: The Standard Algorithm vs. Alternative Strategies

The treatment of standard algorithms for fundamental operations serves as a primary example of this pedagogical conflict.

  1. Delayed Introduction: The Common Core standards mandate that the standard algorithm for multi-digit addition and subtraction be taught by Grade 4, but encourage “place-value strategies” in earlier grades.
  2. Pedagogical Rationale: The belief underpinning this delay is that teaching alternative methods first builds deeper conceptual understanding of place value.
  3. Negative Consequences: In practice, this approach often presents students with a confusing array of strategies. The standard algorithm, the most efficient method, is consequently de-emphasized and treated as just one of many options, hindering the development of procedural automaticity. This directly impacts the quality and effectiveness of learning outcomes (SDG 4, Target 4.1) and can create educational inequalities (SDG 10) by failing to equip all students with the most effective computational tools.

While co-authors of the Common Core have clarified that earlier instruction of the standard algorithm is permissible, this is not explicitly stated in official guidance for publishers. As a result, textbooks often delay its introduction, undermining a key building block of mathematical proficiency.

Recommendations for an Evidence-Based Approach to Quality Education

Reforming Evaluation Metrics for Instructional Materials

Current evaluation bodies, such as EdReports, are noted to grade materials based on alignment with Common Core standards rather than on proven efficacy. To better serve the objectives of SDG 4, evaluation criteria must shift to prioritize materials that are validated by research on how students learn and that demonstrate positive results in classroom settings.

Aligning Instruction with Cognitive Science

The methods promoted as HQIM often conflict with established research on effective learning. To ensure that instructional practices contribute meaningfully to quality education (SDG 4) and provide the foundational skills for decent work and economic growth (SDG 8), materials should be structured according to evidence-based principles. Research indicates that effective instruction should incorporate the following elements:

  • Chunking: Information should be delivered in manageable segments to avoid cognitive overload.
  • Worked Examples: Initial practice should be guided by clear, worked examples.
  • Gradual Complexity: Problems should increase in complexity systematically to build confidence and mastery.
  • Interleaving and Retrieval Practice: Practice should include problems from previous lessons to ensure retention.
  • Prioritizing Standard Algorithms: Standard algorithms should be taught to mastery first to serve as a cognitive anchor before alternative strategies are introduced.

Conclusion: Redefining “High Quality” to Achieve Global Goals

To achieve the ambitious targets of SDG 4, the definition of “high-quality” instructional materials must evolve. The focus must shift from mere standards alignment to an evidence-based framework centered on cognitive science and proven pedagogical effectiveness. Adopting materials that are structured to align with how students actually learn is essential for building the foundational skills necessary for lifelong learning, reducing educational inequality, and supporting broader sustainable development objectives.

SDGs Addressed in the Article

SDG 4: Quality Education

  • The entire article is centered on the theme of ensuring quality education. It delves into the specifics of what constitutes “high-quality instructional materials” (HQIM) for mathematics, questioning whether current standards and evaluation methods lead to effective learning. The discussion revolves around teaching methodologies, curriculum content (Common Core standards), and the ultimate goal of building genuine student skills, which are all core components of SDG 4.

Identified SDG Targets

  1. Target 4.1: By 2030, ensure that all girls and boys complete free, equitable and quality primary and secondary education leading to relevant and effective learning outcomes.

    • The article directly addresses the challenge of achieving “effective learning outcomes” in mathematics. The author, Barry Garelick, argues that the current emphasis on “conceptual understanding” at the expense of “procedural fluency” may be hindering effective learning. He points out that delaying the teaching of standard algorithms, a practice encouraged by many Common Core-aligned textbooks, results in students not mastering the “fastest, most efficient way of doing arithmetic.” This debate about pedagogical approaches and their impact on student competency is central to achieving Target 4.1.
  2. Target 4.4: By 2030, substantially increase the number of youth and adults who have relevant skills, including technical and vocational skills, for employment, decent jobs and entrepreneurship.

    • The article’s focus on foundational mathematical skills like arithmetic and algebra is directly linked to this target. Mastery of these subjects provides the “relevant skills” necessary for higher education and a wide range of technical and professional fields. The author’s dissatisfaction with a textbook due to a “dearth of word problems” and poor scaffolding indicates a concern for developing practical, applicable skills that are crucial for future employment.
  3. Target 4.c: By 2030, substantially increase the supply of qualified teachers, including through international cooperation for teacher training in developing countries, especially least developed countries and small island developing States.

    • The article highlights issues related to teacher qualifications, training, and autonomy. It notes that “the cadre of teachers emerging from various schools of education have been taught that the reform ideologies and pedagogy work,” suggesting a disconnect between teacher training and evidence-based effective practices. Furthermore, the author describes his and other teachers’ decisions to use unapproved materials as a form of “civil disobedience,” pointing to a need for qualified teachers to have the autonomy and support to use materials they know to be effective, which is an aspect of a well-supported and qualified teaching force.

Indicators for Measuring Progress

  1. Indicators for Target 4.1

    • Proportion of instructional materials evaluated based on proven efficacy: The article critiques the practice of rating materials as “high-quality” based on their “alignment with the Common Core, not on proven efficacy.” An implied indicator for progress would be a shift in evaluation criteria to prioritize evidence of improved student learning outcomes.
    • Proportion of students demonstrating mastery of standard algorithms by the recommended grade level: The author argues that the standard algorithm for addition/subtraction is often delayed until 4th grade, to the detriment of students. An indicator of effective learning, according to the article’s logic, would be the percentage of students who have mastered these fundamental procedures first “to act as an anchor, before presenting students with alternative strategies.”
  2. Indicators for Target 4.4

    • Student proficiency in applying mathematical concepts to solve complex problems: The author’s preference for a textbook with more “word problems” and better “scaffolding” implies that a key indicator of relevant skills is the ability to apply mathematical knowledge. Measuring students’ ability to solve multi-step, application-based problems would be a relevant indicator.
  3. Indicators for Target 4.c

    • Proportion of teacher education programs incorporating evidence-based pedagogy: The article criticizes education schools for teaching “reform ideologies” that may not align with research on “how learning happens.” An indicator of progress would be the extent to which teacher training curricula incorporate the evidence-based practices mentioned, such as teaching standard algorithms first, chunking information, and using worked examples.
    • Degree of teacher autonomy in selecting instructional materials: The author’s discussion about teachers using materials “of their own liking based on their experience or knowledge” suggests that teacher autonomy is a factor in quality instruction. An indicator could measure the level of professional freedom teachers have to supplement or select materials to meet their students’ needs.

Summary of SDGs, Targets, and Indicators

SDGs Targets Indicators
SDG 4: Quality Education 4.1: Ensure quality primary and secondary education leading to relevant and effective learning outcomes.
  • Proportion of instructional materials evaluated based on proven efficacy rather than alignment to standards.
  • Proportion of students demonstrating mastery of standard mathematical algorithms.
SDG 4: Quality Education 4.4: Increase the number of youth with relevant skills for employment.
  • Student proficiency in applying mathematical concepts to solve complex and practical problems (e.g., word problems).
SDG 4: Quality Education 4.c: Increase the supply of qualified teachers.
  • Proportion of teacher education programs that teach evidence-based pedagogical practices.
  • Degree of professional autonomy granted to teachers in selecting and supplementing instructional materials.

Source: edweek.org