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The OECD Future of Education and Skills 2030 (E2030) project's overall goal is that of looking to the future in terms of how school curricula should evolve given the technological advances and other changes that societies are now facing. Towards that end, the E2030 project centres on the idea that education needs to equip students with the knowledge, skills, attitudes and values they need to become active, responsible and engaged citizens. Mathematics is considered a highly relevant subject for achieving the above stated goals, as such it requires further and more detailed analysis. As a result, it has been chosen as one of the E2030 project's subject-specific analyses. The project has been named the Mathematics Curriculum Document Analysis (MCDA) study as per the request of participating countries. This working paper presents the findings of the MCDA study, which involves participants from 19 countries and jurisdictions.

In 2015, for the first time in its history, PISA (the Programme for International Student Assessment) asked teachers to describe the various aspects of their working environment and teaching practices. This paper examines how teacher, student, and school characteristics are related to science teachers' satisfaction in 19 PISA-participating countries and economies. The findings show that the most satisfied science teachers tend to be those who are initially motivated to become teachers. The results also highlight the positive relationship between science teachers' satisfaction and teacher collaboration, good disciplinary climate in science classes, availability of school resources, and the opportunity to participate in professional-development activities.

Is the United States getting it wrong when it comes to educating tomorrow's innovators in critical fields? It has been known for years that the only way to compete globally in information technology, engineering, nanotechnology, robotics and other fields is to give students the best educational opportunities possible. But do individuals have a successful formula when it comes to science, technology, engineering and math (STEM) education? In this report, the authors challenge the nation's approach to STEM education and argue that reforms are urgently needed to better match the talents of students, the needs of employers, and its goals. (Contains 19 tables, 42 figures, and 623 endnotes.) [Funding for this paper was provided by the Intel Corporation. For "Refueling the U.S. Innovation Economy: Fresh Approaches to Science, Technology, Engineering and Mathematics (STEM) Education. Executive Summary," see ED521736.]

This paper describes how the global talent pool is changing. The expansion of higher education in rapidly-developing G20 nations has reduced the share of tertiary graduates from Europe, Japan and the United States in the global talent pool. If current trends continue, China and India will account for 40% of all young people with a tertiary education in G20 and OECD (Organisation for Economic Cooperation and Development) countries by the year 2020, while the United States and European Union countries will account for just over a quarter. The strong demand for employees in "knowledge economy" fields suggests that the global labour market can continue to absorb the increased supply of highly-educated individuals.