Template - Enter Materials Design Plan Title Here Note Student Examples for each component are given and are italicized, in some cases these are partial examples. Introduction Begin with a brief Introduction to your materials design plan. This should include the target audience and content focus of your plan. Introduction Student Example: The objective of this materials design plan is for preservice teachers to have a better understanding of content and teaching knowledge related to fractions. The design plan will consist of five modules. Even though preservice teachers may teach students fraction concept and computation, the insufficient of their knowledge has been reported by researchers (Naiser, Wright, & Capraro, 2004). To supplement preservice teachers’ insufficient teaching knowledge, they are provided basic knowledge of fraction and asked to design lesson plans using hypermedia materials. In special, identification of students’ misconception on fraction can be helpful for preservice teachers’ teaching knowledge. The lesson plans are needed to include scaffoldings, practice and feedback. I. Theoretical Rationale Craft a detailed narrative that provides a theoretical rationale from a cognitive or situative learning theory perspective (3 points). Partial Student Example of Theoretical Rationale: I discussed four cognitive perspectives (i.e. metacognitive skills, practice and feedback, social context and cultural norms and student beliefs) in my objective 2 work and designed a content map on fractions in objective 3. In this section, I will describe how cognitive perspectives can be applied to online materials and specifically the fraction content map. I will connect these cognitive perspectives to my materials design plan and assessment tools and approaches. The Link between Cognitive Perspective and Materials Design Plan Cognitive perspectives provide basic principles for teaching content knowledge. Metacognitive skills mean “thinking about thinking” or “internal dialogue” (Bransford, Brown, & Cocking, 1999). Metacognition is critical for students to learn how they can organize their own learning… online learning materials should include some components to teach students metacognitive skills. II. Multimedia Specifications Student Example Multimedia Specifications: These online modules have multimedia specifications; online discussion board, video clips and presentation in the virtual classroom. All of these procedures can be implemented in the traditional classrooms; but the effectiveness can be improved when those are implemented in the online class. Online discussion board provides formative feedback timely and students can access easily to the video clips when they are available. In addition, presentations in the virtual classroom can relieve the time and space limitations. Presentation - Formative assessment including Video Clips - Scaffolds for identification of misconceptions Discussion Board - Feedback & Scaffolding - Communication Space III. Content Elements Organized in a Map Example: Content Map of Fractions: Use addition, subtraction, multiplication, and division to solve problems involving fractions and decimals Use addition and subtraction to solve problems involving fractions and decimals Compare two fractional quantities in problem-solving situations using a variety of methods, including common denominators Generate a mixed number equivalent to a given improper fraction or generate an improper fraction equivalent to a given mixed number Generate a fraction equivalent to a given fraction such as 1/2 and 3/6 or 4/12 and 1/3 Use concrete objects and pictorial models to generate equivalent fractions Model fraction quantities greater than one using concrete objects and pictorial models Compare and order fractions using concrete objects and pictorial models Relate decimals to fractions that name tenths and hundredths using concrete objects and pictorial models Construct concrete models of equivalent fractions for fractional parts of whole objects Compare fractional parts of whole objects or sets of objects in a problem situation using concrete models Use fraction names and symbols to describe fractional parts of whole objects or sets of objects Use concrete models to represent and name fractional parts of a whole object or sets of objects Describe fractional parts of whole objects or sets of objects IV. Specify Components of Each Lesson Student Example Components of Lesson/Module: Big Picture for 5 Modules The whole professional development for preservice teachers includes 5 modules. The objective of these modules is to let preservice teachers know basic knowledge, standardized objectives of fractions and to develop hypermedia resources for elementary level students. Intended length of an on-line module is one hour. Each module consists of specific hypermedia tools. Online class for modules requires discussion boards, individual e-journals and feedback from content experts. Each module has specific objectives, scaffolds (presentation of information), selfassessment, assessment for instruction, exercise problems and feedback. Module Contents - 1 - 2 - Basic knowledge of fraction (Content and teaching knowledge) TEKS & TAKS Introduction for project to develop hypermedia resources Making project groups Resources - - - 3 - Misconceptions on fraction Action Presentation Simple Quiz1 to evaluate prior knowledge - Links to existed hypermedia resources about fraction - Video Clip on students’ explanation of solving process - - - - Self-Check of prior knowledge through the quiz Decide objectives E-journal Design big idea for developing hypermedia E-journal Identification of misconceptions Discussion about remediation methods - 4 5 - - Technology skill Assessment instruments Presentation Self-assessment Survey on online modules - - - Presentation to explain technical skill Examples for assessment2 and rubric Virtual classroom for presentation Survey tool - - - Developing technology skill and constructing hypermedia Making assessment and rubric Presentation Self-assessment Survey Another Student Example of Lesson Components: I. II. III. IV. V. Content Elements of a Lesson Lesson Title Schemas for Organizing Content Synopsis: describes the content of the lesson Schemas help people interpret complex data by TEKS weaving them into sensible patterns (National A. Content TEKS Research Council, 2001). People will generally B. Process TEKS try to link new information to previously learned Getting Ready For Instruction information for two reasons: to better understand A. Performance Indicator the new information and to move the information B. Key Understandings and Guiding Questions from the working memory to long-term memory. C. Vocabulary of Instruction Schemas are used for organizing knowledge in D. Materials ways that are useful. In these science lessons, E. Attachments advanced organizers are used as the schema for 1. Handouts: these are for student use organizing content. 2. Teacher Resources: these are keys, samples or instructions 3. Power Points Metacognitive Skills F. Resources and References Weimer (2011) notes that when learners use 1. Interactive Websites: URLs are regulatory metacognitive skills, they do better at provided for interactive sites suitable paying attention, they use learning strategies for students more effectively, and they are more aware of 2. Suggested literature selections: when they are not comprehending something Integrating literacy is a critical they are trying to learn. In these lessons students component of the primary units. are expected to reflect in their interactive science G. Advance Preparation: what the teacher notebooks regularly. needs to do in order to be prepared for the lesson. Role of Prior Knowledge H. Background Information: Information for When designing online instructional resources, the teacher. This is a teaching piece for teachers who may need additional content Vasser (2010) says that course designers must information. activate the learner’s prior knowledge on the Instructional Procedures and Notes for Teacher: subject and create authentic learning experiences a two-column format that details the flow of the that learners can translate to their work or lesson. professional lives. She points out that in A. Engage traditional classroom settings, the instructional B. Explore methods and activities are most often determined C. Explain Assessment includes score scheme for hypermedia lessons and students’ performance and achievement. 2 D. Elaborate E. Evaluate by the instructor and can be modified based on student responses during the class. In online environments, however, most of the instructional methods and activities are determined prior to the start of the course and cannot be changed during the course. A part of the design of these online resource ways to activate prior knowledge is included V. Description of Assessment Tools for Learners and Program Assessments Student Example: Scoring Scheme for Preservice Teacher Formative Assessment Formative assessment means continuous feedback for students. Also, it indicates the use of assessments as sources of feedback to improve teaching and learning. Formative assessment makes students’ thinking to be visible through the discussion, papers and tests. That is, teachers can give feedback for students’ work in progress and let them to revise their incorrect or inappropriate points. One of the formative assessments is a portfolio assessment. Portfolio includes many prior works of students and this can make them to reflect and remind prior knowledge. And online-based formative assessment tool is teachers’ on-line monitoring system. When students upload their work on the web site, teachers continuously give feedback on their work. In the aspect of teachers, appropriately designed assessments can help teachers realize the need to rethink their teaching practices and technology can help teachers to solve the problems, limited time. For teachers, formative assessment gives teachers much information of students’ prior knowledge and their final appropriate goals. Furthermore, through the formative assessment, teachers can have a chance to rethink their instructional methods and revise them for students’ learning with understanding. Meanwhile, students also have good feedback to improve their learning from the formative assessments. Opportunities to work collaboratively are also good formative assessment for students. These learning modules ask students to design lesson including scaffolds, identification of misconceptions, practice and feedback. In the final module, students may present their lesson plan like as a teacher in the classroom. To evaluate this performance, the holistic rubric can be used. Exceeding Adequate (9-10) Comprehension Appropriate Goal Scaffold Misconception Feedback Preparedness Hypermedia Total Presentation Material Collaboration Content Structure Adequate (7-8) Approaching Adequate (5-6) Not Attempted or Not Adequate (14) Comments VI. Project Team Organization Chart and Management Plan Student Example: Project Team Organization Chart and Management Plan The project team has many layers and it is not a one-way system. The upper management gives directives, but has no part in development of the science product. The development starts with the high school science specialist and the elementary science specialist. They direct a team of content writers. Once a document is developed it must be reviewed by a content editor and a copy editor. If there are any issues with the document, the content specialist may need to work on the document. The formatter ensures that all documents formatted to specifications set by the leadership team. The assessment team is a separate group but depends on the work of the content writers. The Technology specialist uploads every document with the assistance of support staff. For a visual of the Organizational Chart, please see figure 2. Vii. Team Member Roles Student Example = Team Member Roles Their (2001) discusses the diverse team of specialists it takes to design, develop and refine guided inquiry lessons. Our team includes science specialists, content writers, content reviewers, copy editors, a formatter, a technology specialist, an assessment team, science workgroup members, and several upper management members. Content Writers: These members are responsible for developing both the curriculum documents (year-at-a-glance, vertical alignment document, instructional focus document, TEKS verification document) and the instructional documents (exemplar lessons). They were chosen because of their experience as exemplary science teachers and their knowledge of curriculum and instruction. Content Reviewers: These members review every lesson for science accuracy and for flow, cognitive rigor, and adherence to a rubric standard. They meet with the lead science specialists to discuss every lesson before it is uploaded onto the science site. Copy Editors: These members are the experts in English grammar. They review every lesson and every attachment to edit any grammar or spelling errors. They are not science teachers, but rather technical writers who are qualified to review documents. Formatter: This team member is responsible to format all documents according to the specifications listed by the upper management. There is a master document that specifies how lessons and attachments are to be formatted in the on-line site. Only one person does the formatting in order to ensure all documents are consistent. Technology Specialist: This team member is responsible for changing the word documents into a PDF format and then uploading them onto the website. She has been with the curriculum program for five years and is an expert in her area. Assessment Team: These members create the multiple-choice assessments. They do not work with the content writers directly, but instead work off of the documents that are created by the content writers. Science Workgroup Members: These specialists work with teachers throughout the year in support roles as well as ‘go-betweens’ with the science content writers. They are not directly associated with the online site but are integral members of the science community as conduits of information from teachers. Upper Management: These members make the decisions about site layout, content, deadlines, and funding. They are not experts in science content or curriculum but are instead in supervisory positions. VIII. Development Timeline Student Example: Another Development Timeline Student Example: Timeline Objective Details Person Responsible September 2009 Develop the Year at a Glance Bundle the TEKS into manageable units. Content writers January 2010 Develop the Instructional Unit plans Determine the number of lessons necessary for each unit, including the number of days for each lesson. Content writers Develop a rationale for the unit including research on why the content is important at that grade level. March 2010 Develop the Transition Documents to bridge content from the 1998 TEKS to the 2009 TEKS. Outlines of suggested activities for teacher use until new lessons are developed. Content Writers April 2010 Develop new lessons for the 2011-2012 school year This process is ongoing and will take until August 2011 for completion. Content writers Content editors Copy editors Formatter Technology Specialist Support Staff March 2011 Review of all Performance Indicators Performance Indicators revised to ensure they contain a content TEKS, a process TEKS and a product. At middle school and up they are also to have a “real world’ application. Content writers science workgroup March 2011 Development of Assessments Grades 2-12 Multiple-choice assessments developed. Will be ongoing. Assessment team Science Specialists August 2011 Revisions based on feedback As the curriculum documents and the instructional documents become available, revision will begin based on teacher feedback. Ongoing. Content reviewers August 2011-2013 Development of products or services to assist with implementation Science notebook manuals Lab books with all data recording sheets (developed for Grades K3) Content writers Upper management References References should be cited for the theoretical rationale (within the narrative text) and in the reference section at the conclusion of the paper As always use the conventions provided in the American Psychological Association 6th edition for citations, references and the format of paper.