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A Framework for Designing & Identifying Professional Development Programs

Principles of Effective Professional Development for Mathematics and Science Education: A Synthesis of Standards

Principles of Effective Professional Development

Designing Professional Development: A District Profile


With the principles of effective professional development as a foundation, designs for effective professional development of mathematics teachers need to proceed carefully and consider a number of different elements. The figure on this page illustrates a design framework that organizes these elements in ways that suggest both how to design a new program and how to analyze the design of an existing program.


At the center of the framework, illustrated in the rectangles connected with horizontal arrows, is a generic planning sequence, incorporating the following actions: committing to a vision and a set of standards, analyzing student learning data, goal setting, planning, doing, and evaluating. The circles above and below the planning sequence represent important inputs into the design process that can help professional developers make informed decisions. They cue designers to consider the extensive knowledge bases that can inform their work (knowledge and beliefs), to understand the unique features of their own context, to draw on a wide repertoire of professional development strategies, and to wrestle with critical issues that mathematics and science education reformers will encounter, regardless of their contexts.

The arrows in the graphic indicate when in the planning sequence these inputs are most important to start to consider. For example, note that strategies are most important to consider after goals are clearly established. Otherwise, there is the danger of grabbing at strategies that may not align with your goals, meet student learning needs, or fit your context. Once an input feeds into the system, it is assumed that it will continue to inform all subsequent stages in the process. For example, knowledge and beliefs informs "commit to vision" and every subsequent step, including how the plan is designed, implemented, and evaluated. Context determines what kind of data you consider in the data analysis phase and what student, teacher, and organizational learning needs the goals should address. Plans are made and implemented based on a solid understanding of contextual factors like available time, resources, leadership, and school culture and are evaluated, in part, by the extent to which these and other context factors are positively impacted. Planners consider critical issues like equity, scale up, and building capacity early on as they set goals and develop plans, and they continue to attend to them later as they are implementing and evaluating the program. Finally, in the design framework graphic, an arrow connects evaluation back to vision and to the other inputs of knowledge & beliefs, context, critical issues, and strategies to illustrate how evaluating leads to rethinking the vision, plans, goals, and actions and may change the inputs. Designs continue to evolve as professional developers learn from both their experiences and evaluation results.

The process mapped out in the design framework can be used to design both small and large-scale professional development, from an individual school's program to a state-wide or national initiative. It can guide designs that involve a single strategy such as a workshop or study group or a complex multi-strategy program, combining several strategies either simultaneously or over time. For any grain size, the design framework provides a map for crafting professional development to achieve the desired goals for students and teachers. (Loucks-Horsley et al, 2003, pp. 3-4)


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Illustration from: Designing Professional Development for Teachers of Science and Mathematics by Susan Loucks-Horsley, Peter W. Hewson, Nancy Love, and Katherine E. Stiles, with Hubert M. Dyasi, Susan N. Friel, Judith Mumme, Cary I. Sneider, and Karen L. Worth (Thousand Oaks, CA: Corwin Press, 1998). The book is a product of the National Institute for Science Education, funded by the National Science Foundation. Reprinted by permission of Corwin Press.



Knowledge & Beliefs


Current knowledge, remarkably strong in most cases, can form a firm foundation under professional development. Research suggests that learners construct their own understandings and that certain teaching strategies--such as building on prior knowledge and active exploration of concepts--can facilitate that learning.


Effective professional development involves active study, over time, of science content and pedagogy in ways that model effective learning and make direct connections with teachers' practice. Research on change indicates the importance of attending to individual teacher needs over time, providing learning opportunities tailored to those needs, and creating a climate of collegiality and experimentation and a capacity for continuous learning and support. These knowledge bases influence design decisions for effective professional development programs.

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Context


A thorough examination of factors in the context that participants bring to the program also assists in design. The needs and nature of the students; the backgrounds, needs, and teaching responsibilities of the teachers; the resources available and degree of community support; the organization, expectations, and current demands of the schools and districts--all are important considerations in the design of professional development for mathematics teachers

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Critical Issues


There are at least nine issues that designers of professional development must consider that carry the message: Ignore them at your peril! These may not all require attention at the onset but should be considered as the initiative or program unfolds.


Ensuring equity and supporting new standards and frameworks through professional development promote high-quality learning for all students and maximize the likelihood that current improvement efforts will reach their goals. Such issues as building capacity, developing leadership, and scaling up influence the extent to which teachers change their practice. Only when they are addressed by a professional development program will changes made by individual teachers extend beyond their classrooms to the education system.


Attention paid to garnering public support and evaluating professional development helps ensure sustained commitment to a program that works effectively. All nine of the critical issues should concern professional developers at some time in their work.

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15 Strategies for Professional Development


Fifteen strategies for professional development are summarized in the next section of this publication. The strategies are the "toolkit" from which professional developers can design their programs or initiatives. They expand the professional development repertoire far beyond the more typical inservice workshops, courses, and institutes (although these are included as well). A well-chosen array of experiences will promote teachers' opportunities for growth in many different areas of knowledge and skill, and in a wide variety of contexts.


Those looking for a few discrete, clearly effective "models of professional development" will be disappointed that none exist. Every situation and initiative requires its own unique model. But this does not mean that each program needs to start from scratch. As explanation of this design model indicates, there is a broad and deep base of information, research, and, indeed, wisdom that can be drawn upon to build unique and successful professional development opportunities for science teachers.

References & Resources


Loucks-Horsley, S., P.W. Hewson, N. Love, & K.E. Stiles. (1998) Designing Professional Development for Teachers of Science and Mathematics. Thousand Oaks, CA: Corwin Press.


Shulman, L.S. (1987) Knowledge and teaching: Foundations of the new reform. Harvard Educational Review, 57, 1-22.
U.S. Department of Education, Professional Development Team. (1995) Mission and principles of professional development. Washington, DC: Author.


U.S. Department of Education. (1993-94) National Center for Education Statistics, Schools and Staffing Survey, Public School Teacher Questionnaire. Washington, DC: Author.

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STRATEGIES FOR PROFESSIONAL DEVELOPMENT

Key to the Purposes:

A.Strategies that focus on developing awareness are usually used during the beginning phases of a change. The strategies are designed to elicit thoughtful questioning on the part of the teachers concerning new information.
B. Strategies that focus on building knowledge provide opportunities for teachers to deepen their understanding of mathematics content and teaching practices.

C. Strategies that help teachers translate new knowledge into practice engage teachers in drawing on their knowledge base to plan instruction and improve their teaching.

D. Strategies that focus on practicing teaching help teachers learn through the process of using a new approach with their students. As teachers practice new moves in their classrooms, they deepen their understanding.

E. Strategies that provide opportunities to reflect deeply on teaching and learning engage teachers in assessing the impact of the changes on their students and thinking about ways to improve. These strategies also encourage teachers to reflect on others' practice, adapting ideas for their own use.

Strategies Purposes
Immersion Primary Secondary
A
B
C
D
E

1. Immersion into Inquiry and Problem Solving:

Engaging in the kinds of learning that teachers are expected to practice with their students, such as inquiry-based mathematics investigations.

2. Immersion into the World of Mathematics:

Participating in an intensive experience in the day-to-day work of a mathematician, often in a laboratory, industry, or museum, with full engagement in research activities.

     

Curriculum

Primary Secondary
A
B
C
D
E

3. Curriculum Implementation:

Learning, using, and refining use of a particular set of instructional materials in the classroom.

4. Curriculum Replacement Units:

Implementing a unit of instruction that addresses one topic in a way that illustrates effective teaching techniques.

5. Curriculum Development and Adaptation:

Creating new instructional materials and strategies or tailoring existing ones to better meet the learning needs of students.

Examining Practice Primary Secondary
A
B
C
D
E

6. Action Research:

Examining teachers' own teaching and their students' learning by engaging in a research project in the classroom.

7. Case Discussions:

Examining written narratives or videotapes of classroom events and discussing the problems and issues

8. Examining Student Work and Thinking, and Scoring Assessments:

Carefully examining students' work to understand their thinking so that appropriate instructional strategies and materials can be identified.

Collaborative Work Primary Secondary
A
B
C
D
E

9. Study Groups:

Engaging in regular collaborative interactions around topics identified by the group, with opportunities to examine new information, reflect on classroom practice, and analyze outcome data.

10. Coaching and Mentoring:

Working one-on-one with another teacher to improve teaching and learning through a variety of activities, including classroom observation and feedback, problem solving, and co-planning.

11. Partnerships with Mathematicians in Business, Industry, and Universities:

Working collaboratively with practicing mathematicians with the focus on improving teacher content knowledge, instructional materials, and access to facilities.

12. Professional Networks:

Linking in person or through electronic means with other teachers to explore topics of interest, pursue shared goals, and address common problems.

Vehicles and Mechanisms Primary Secondary
A
B
C
D
E

13. Workshops, Institutes, Courses, and Seminars:

Using structured opportunities outside the classroom to focus intensely on topics of interest, including mathematics content, and learn from others with more expertise.

14. Technology for Professional Development:

Using various kinds of technology, including computers, telecommunications, video, and CD-ROMs, to learn

15. Developing Professional Developers:

Building the skills and deep understanding of content pedagogy needed to create learning experiences.

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Table adapted from Designing Professional Development for Teachers of Science and Mathematics by Susan Loucks-Horsley, Peter W. Hewson, Nancy Love, and Katherine E. Stiles, with Hubert M. Dyasi, Susan N. Friel, Judith Mumme, Cary I. Sneider, and Karen L. Worth (Thousand Oaks, CA: Corwin Press, 1998). The book is a product of the National Institute for Science Education, funded by the National Science Foundation.

A Framework for Designing & Identifying Professional Development Programs

Principles of Effective Professional Development

Designing Professional Development: A District Profile

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