面向未来的数学课程

Future-Focused Mathematics Curricula:Empowering Learners for the 21stCentury As education systems adapt to evolving societal and technological demands, mathematics curriculamust also evolve. Recent trends highlight challenges such as declines in student performance and gapsbetween intended learning goals and real-world applications. Integrating competencies like dataliteracy, computational thinking, and problem-solving into curricula can help ensure mathematicseducation remains relevant. However, achieving this requires addressing key considerations, such asbalancingcurriculumcontentandcompetencieswithoutoverload,ensuringalignmentbetweencurriculum design and implementation, and including equitable access to high-quality instruction.Additionally, fostering interdisciplinary connections and providing flexibility for diverse learners canenhance engagement and better prepare students academically, professionally and as lifelong learners. This Policy Brief builds on findings from the OECD reportAn Evolution of Mathematics Curriculum,developed within the OECD Future of Education and Skills 2040 project, to explore: The evolution of modern mathematics curriculum •How do mathematics and other subjects compare in relation to key competencies?•How have mathematics curricula evolved over the last 25 years?•How can evolving demands be integrated into mathematics curricula without causingcurriculum overload? 21stcentury curriculum dilemmas: overload, digital transformation, equity,school autonomy •How can equity gaps in mathematics performance be closed to ensure all students benefit?•How can digital tools and resources be effectively integrated into mathematics curricula toenhance teaching and learning?•Howcanflexibilityandautonomysupportanequitable,rigorous,andadaptablemathematics curriculum? Design principles for future-oriented mathematics curriculum How can mathematics curricula be redesigned to address the demands of the 21st century? The evolution of modern mathematics curriculum How do mathematics and other subjects compare in relation to keycompetencies? Mathematics plays a pivotal role in equipping students with foundational and advanced competenciesneeded for the 21stcentury. Among all subjects, mathematics is uniquely positioned to develop numeracy,critical thinking, data literacy, and problem-solving skills - competencies that are essential for navigatingtechnological advancements, economic shifts, and complex societal challenges. Moreover, developingthese competencies can empower individuals by enhancing their ability to make informed financialdecisions, interpret data critically, and approach problems with logical reasoning. Beyond its traditionalfocus, mathematics increasingly intersects with other disciplines, both shaping and drawing from fields likedata science, technology, and environmental studies. Its methods underpin problem-solving in sciencesandeconomics,whilereal-worldapplicationsfromthesefieldsenrichmathematicallearning.Thisinterconnectedness highlights the need for curricula that integrate interdisciplinary learning, ensuringstudents can apply mathematical reasoning across diverse domains and develop competencies relevantto an evolving world. Tobetterunderstandhowsomefoundationaland21stcenturycompetenciesareembeddedintomathematicscurriculumalongsideothersubjectareas,insightsfromtheOECDEducation2030’sCurriculum Content Mapping (CCM)1exercise provide valuable evidence. Mathematics curricula across countries and jurisdictions show significant variation in how they integrate21stcentury competencies.Foundational competencieslike numeracy, critical thinking, and problem-solving are extensively embedded and remain central to mathematics education. These competencies arevital for cognitive development and enable students to apply mathematical reasoning in real-worldcontexts, from financial planning to environmental problem-solving. Interestingly, some competencies not traditionally associated with mathematics, such asliteracy, are alsobeing incorporated into mathematics curricula. Literacy in mathematics includes understanding andinterpreting complex problems, proofs, and mathematical concepts in broader contexts. This reflects agrowing effort to make mathematics more interdisciplinary and relevant, connecting abstract principles withdiverse applications across subjects and fields. By contrast,emerging competenciessuch as creativity, responsibility, trust, and co-agency are lessfrequently embedded in mathematics compared to subjects like humanities, national language, or physicaleducation. For example, competencies that foster social interaction, such as empathy and collaboration,are more commonly emphasised in subjects that naturally lend themselves to group activities andcooperative learning, such as arts or language studies. Mathematics curricula, by comparison, tend tofocus more on individual analytical skills, highlighting a potential area for further development in fosteringholis