Biology Programs in the Peoples Republic of China and the United States April Gardner, BSCS Liu Enshan, Beijing Normal University Bruce Fuchs, Office of Science Education, NIH Origins of the project July 2005: Meeting of American and Chinese math and science education leaders convened by Asia Society Potential areas of collaborative work identified at meeting included comparative studies of curriculum standards and materials in the two countries 2006: Grant to BSCS from the Office of Science Education, NIH, supported a comparative study in biology education Study Questions 1. What concepts are used as the foundation for biology programs in the US and China? 2. What is the role of scientific inquiry in the programs? 3. What is the role of educational technology in the programs? Background US and Chinese math and science have unique strengths and challenges US and Chinese math and science have common areas of interest/concern Chinese education system National science education standards in both countries Diverse strengths in science education • • • • US More “second chances” throughout the system Greater flexibility and innovation More use of inquiry and laboratory Greater emphasis on biology and earth science at high school level • • • • CHINA All curriculum materials meet national standards Clear alignment between curriculum materials and instruction Emphasis on mastery of basic concepts Strong work ethic among students Diverse challenges in science education • • • • US Uneven and repetitive curriculum Adherence to diverse state standards rather than national standards Basic concepts not taught to mastery Lack of alignment between instruction and accountability • • • • CHINA Pedagogy dominated by teacher-to-student lectures Lack of independent thinking by students Examination-driven system provides little choice or “second chances” Large gap between education in urban and rural areas Common area of interest: Effective use of educational technology • Building adequate hardware and software infrastructure • Evaluating effectiveness of technology for student learning • Developing effective ways of using technology in assessment systems • Revising examination systems to reflect student learning through technology • Evaluating technology-based curriculum materials for their educational value (as opposed to solely entertainment) • Providing professional development for teachers on effective uses of technology-based curriculum materials and instructional strategies Chinese education system Children enter day care center at 2 ½ years Kindergarten: K1 to K3, ages 3 to 7 years Based on Syllabus of Kindergarten Education issued by MOE Content areas include health, language, social studies, science, and arts Elementary school: Grades 1 to 6, ages 7 to 12 years Science content includes biology, physics, and Earth/space science; science as inquiry; and positive attitudes toward science “Living world” content includes diversity of organisms; common features of life; organisms and their environment; and health Chinese education system Middle school: Grades 7 to 9, ages 13 to 15 Biology & geology in grade 7; biology, geology, & physics in grade 8; physics & chemistry in grade 9 Ten topics in biology: inquiry organisms & their environment animal movement & behavior reproduction, development, & genetics basic structures of organisms biotechnology plants humans biodiversity health Zhong kao: external examination at grade 9 determines who can enter high school High school: Grades 10 to 12, ages 16 to 18 General high schools for university bound; vocational high schools for labor-force bound Three core modules in biology required; three elective modules available Gao kao: national entrance examination for universities National science education standards, grades 9/10 – 12 US: Six standards • The cell • Matter, energy, and organization in organisms • Molecular basis of heredity • Biological evolution • Interdependence of organisms • Behavior of organisms China: Three modules • Molecular and cell biology • Genetics and evolution • Homeostasis and environment Study Questions 1. What concepts are used as the foundation for biology programs in the US and China? 2. What is the role of scientific inquiry in the programs? 3. What is the role of educational technology in the programs? General Plan & Procedures Examine 2 programs from each country, one traditional and one standards-based: Traditional Prentice Hall Biology Peoples Education Press Biology Standards-based Kendall/Hunt BSCS: A Human Approach Zhejiang Science & Technology Press Biology PH Biology used by 25-30% of US high schools; PEP Biology used by 90% of Chinese high schools; AHA and ZJST Biology used by much smaller proportions of high schools in each country An English version of PEP Biology is available; Professor Liu provided translation of ZJST Biology General Plan & Procedures, continued Addressed first question by analyzing the table of contents for each program and mapping this overview to the relevant country’s standards Address second and third questions using an in-depth curriculum analysis process for two “units” in each program, ecology and genetics Analysis of table of contents The programs have varying numbers of chapters and pages. Each chapter in a program was identified as relating primarily to one standard. The proportional focus on each standard was determined by dividing the number of chapters per standard by the total number of chapters. Results: Analysis of table of contents Standard* Percent** (Number/Total) of Chapters U.S. China PH Biology KH BSCS: A Human Approach PEP Biology ZJST Biology The Cell Molecule and Cell 5% (2/40) 15% (2.5/17) 22% (2/9) 12% (2/17) Molecular Basis of Heredity Genetics and Evolution 10% (4/40) 18% (3/17) 11% (1/9) 29% (5/17) Biological Evolution Genetics and Evolution 10% (4/40) 12% (2/17) 11% (1/9) 6% 1/17) Interdependence of Organisms Homeostasis and Environment 10% 4/40) 18% (3/17) 22% (2/9) 24% (4/17) Matter, Energy, and Organization in Living Systems Molecule and Cell 7.5% (3/40) 15% (2.5/17) 22% 2/9) 12% (2/17) Behavior of Organisms Homeostasis and Environment 17.5% (7/40) 12% (2/17) 11% (1/9) 18% (3/17) **Percentages may not add to 100% due to rounding errors. †Percentages add to only 60%, because 40% (16/40) of the chapters cover topics that are not in the Life Science Standards for grades 9-12. ††Percentages add to only 90%, because 12% (2/17) of the chapters cover topics that are not in the Life Science Standards for grades 9-12. Results: Analysis of table of contents Program Number of chapters Number of pages PH Biology 40 1059 K/H BSCS Biology: A Human Approach 17 682 PEP Biology 9 307 ZJST Biology 17 374 Analyzing Instructional Materials (AIM) Approximately equivalent content in ecology and genetics identified in each program; 2 to 4 consecutive chapters per program Three-member teams composed of April, Professor Liu, and a BSCS staff biologist analyzed each program Team members split up the reading and identified the “overarching concept” of a chapter and the primary and sub-concepts for each section of a chapter These concepts were organized into a “conceptual flow graphic,” or CFG The CFG was used as the basis for completing 4 rubrics: Concept Development, Work Students Do, Assessment, and Work Teachers Do Sample Rubric: Work Students Do Work Students Do 1 3 5 Engaging Prior Knowledge 1 3 5 Metacognition 1 3 5 Abilities to Do Scientific Inquiry 1 3 5 Understandings about Scientific Inquiry 1 3 5 Role of inquiry and educational technology in the programs Program Role of scientific inquiry Role of educational technology PH Biology Minor: Major: Labs primarily verification; students not asked to design experiments; teacher materials provided short “right-wrong” answers to questions Multiple web resources linked to every chapter KH Biology: A Human Approach Major: Major: Students design experiments, formulate explanations based on evidence; teacher materials encourage accepting and challenging a variety of responses to questions DVD with video and animations an integral part of program; additional teacher support on accompanying CD PEP Biology Moderate: None Students use math in analyzing experimental data; propose explanations based on data; little-no support for teachers ZJST Biology Moderate: Multiple opportunities to design experiments, analyze alternative models; teacher support for doing inquiry activities None To be completed: Analyze programs for coherence, rigor, focus Report findings in a set of three papers History of biology education in China Development of standards in US and China Analysis of representative programs in US and China Thank you! 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