9-2-14 Name of Teacher: School: HCPSS Student Learning Objective Mathematical Practice 1: Make Sense of Problems and Persevere in Solving Them Component Student Learning Objective (SLO) Description 100% of students will demonstrate growth in Common Core State Standards for Mathematics in the learning behaviors defined by the Standard for Mathematical Practice #1 – Make Sense of Problems and Persevere in Solving Them, as evidenced by performance on worthwhile mathematical tasks and/or high quality formative assessments and participation in effective classroom discourse. Population Of the ______ (number) students selected for this SLO: ______ performed at the (low/high) basic level on the previous year’s (M/H)SA ______ performed at the (low/high) proficient level on the previous year’s (M/H)SA ______ performed at the (low/high) advanced level on the previous year’s (M/H)SA ______ were below grade level at the end of the previous year ______ were on grade level at the end of the previous year ______ were above grade level at the end of the previous year. The Standards for Mathematical Practice describe varieties of expertise that mathematics teachers should seek to develop in their students. Learning Content 1. 2. 3. 4. 5. 6. 7. 8. Make sense of problems and persevere in solving them. Reason abstractly and quantitatively. Construct viable arguments and critique the reasoning of others. Model with Mathematics. Use appropriate tools strategically. Attend to precision. Look for and make use of structure. Look for and express regularity in repeated reasoning. The practices describe ways in which developing student practitioners of the discipline of mathematics increasingly ought to engage with the subject matter as they grow in mathematical maturity and expertise throughout the elementary, middle and high school years. The mathematical practices are not skill‐based content that students should learn through direct teaching methods. Instead, the student behaviors develop over time and often emerge during certain learning activities and through the study of specific, critical mathematics topics and standards. Instructional Interval These learning activities, coordinated by mathematics teachers, must include challenging problems, student collaborative groups, interactive discourse, and adequate time. School year 2014-15 (one year) Mathematics classes are 50 minutes per day, 5 days per week (Seminar periods provide an additional 50 minutes per day, 5 days per week.). This SLO is a sample. Targets need to be adjusted based on your students’ data. Student growth should be achieved for all students. 9-2-14 Evidence of Growth To monitor student progress, the following data/measures will be used: Baseline Rationale for Student Learning Objective Target Analysis of student work samples to identify the proficiency level of engagement in the mathematical practices Analysis of student behaviors and dispositions during classroom learning experiences. It should be noted that the mathematical practices are interdependent, and do not develop in isolation from one another. While the focus of this SLO is on student engagement with practice 1 during learning experiences, mathematics teachers need to continually assess student progress on the practices in a holistic fashion. Furthermore, in using the Standards of Student Practice in Mathematics Proficiency Matrix, mathematics teachers and leaders need to apply their knowledge of grade appropriate content and pedagogy to adjust the indicators of progress. Of the ______ (number) students selected for this SLO baseline levels of engagement with mathematical practice 1: Make sense of problems and persevere in solving them, as measured using the Standards of Student Practice in Mathematics Proficiency Matrix: ______ % demonstrated a baseline level of engagement of Absent ______ % demonstrated a baseline level of engagement of INitial ______ % demonstrated a baseline level of engagement of Intermediate ______ % demonstrated a baseline level of engagement of Advanced. (Attach class roster to share students’ scores on Beginning-of-the-Year Assignment/Performance Task/Assessment.) The abilities and mathematical dispositions of students develop as opportunities to learn are provided and are described in the Standards of Student Practice in Mathematics Proficiency Matrix. As a means to help students continue in a pattern of growth with mathematical proficiency, the matrix is a tool to help consider and gauge students’ progress with engagement with the practices. With teacher guidance, students’ proficiency will progress from the baseline levels to more advanced proficiency levels. The target for the _____ students identified for this SLO will be to demonstrate an increase in mathematical practice proficiency level(s), with a focus on practice 1, using the Standards of Student Practice in Mathematics Proficiency Matrix. *Please note: Students identified by IEP teams as having significant cognitive disabilities will have individual targets. This SLO is a sample. Targets need to be adjusted based on your students’ data. Student growth should be achieved for all students. 9-2-14 Criteria for Effectiveness Strategies Partial Attainment of Target Greater than 90% of Between 75% and 90% of students meet agreed students demonstrated upon learning targets growth with consistent consistent with proficiency with proficiency in Math in Math Practice #1. Practice #1. Full Attainment of Target Insufficient Attainment of Target Less than 75% of students meet agreed upon learning targets consistent with proficiency in Math Practice #1. The teacher, working with a collaborative teacher team, should collect data through informal observation, student work samples on worthwhile mathematical tasks and formative items, and other learning artifacts (including digital recordings, student responses to higher order thinking questions). Teachers should record baseline levels of proficiency of student engagement with mathematical practice 1 using the Standards of Student Practice in Mathematics Proficiency Matrix. In planning learning opportunities for students to engage in the mathematical practices, teacher teams should: o Identify content to be taught. o Consider what mathematics students are to know and how students can best demonstrate understanding. o Select mathematical tasks that provide students with opportunities to engage in collaborative critical thinking, productive student-to-student discourse with a focus on content vocabulary and literacy, multiple solution pathways and representations, and productive struggle. o Carefully consider the strategies needed to help students engage in productive reasoning and sense making. (e.g., initiating think-pair-share, think-aloud, questioning and wait time, grouping and engaging problems/tasks, using questions and prompts with groups, allowing students to struggle, etc.) o Formulate several questions they can pose to students to promote reasoning, sense making and communication. Consider possible student responses and common student understandings and approaches for addressing student misunderstandings. o Clarify, define and develop formative/summative assessment activities. o Sequence lesson experiences to maximize opportunities to engage in problem solving. Strategically plan supports offered to students so that students engage in productive struggle without becoming overly frustrated. For selected cluster, collect evidence and data throughout the school year to reflect on individual student growth with mathematical practice 1 and document levels of proficiency. Evidence should be collected at least quarterly. Evidence could include, but is not limited to: student work samples, digital recordings, and feedback from peer observation, and/or a teacher’s classroom observations. This SLO is a sample. Targets need to be adjusted based on your students’ data. Student growth should be achieved for all students. Standards of Student Practice in Mathematics Proficiency Matrix Mathematical Practice 1 2 3 4 5 6 Students: Intermediate (I) Advanced (A) Discuss, explain, and demonstrate solving a problem with multiple representations and in multiple ways. Struggle with various attempts over time, and learn from previous solution attempts Convert situations into symbols to appropriately solve problems as well as convert symbols into meaningful situations. Justify and explain, with accurate language and vocabulary, why their solution is correct. Compare and contrast various solution strategies and explain the reasoning of others. Make sense of problems Explain their thought processes in solving a problem one way. Persevere in solving them Stay with a challenging problem for more than one attempt. Explain their thought processes in solving a problem and representing it in several ways. Try several approaches in finding a solution, and only seek hints if stuck. Reason abstractly and quantitatively Reason with models or pictorial representations to solve problems. Are able to translate situations into symbols for solving problems. Construct viable arguments Critique the reasoning of others. Explain their thinking for the solution they found. Model with Mathematics Use models to represent and solve a problem, and translate the solution to mathematical symbols. Use appropriate tools strategically Use the appropriate tool to find a solution. Attend to precision Communicate their reasoning and solution to others. Explain their own thinking and thinking of others with accurate vocabulary. Explain other students’ solutions and identify strengths and weaknesses of the solution. Use models and symbols to represent and solve a problem, and accurately explain the solution representation. Select from a variety of tools the ones that can be used to solve a problem, and explain their reasoning for the selection. Incorporate appropriate vocabulary and symbols in others. Look for and make use of structure Look for structure within mathematics to help them solve problems efficiently (Seeing 5 – 3(x – y)2 as 5 minus a positive number times a square and use that to realize that its value cannot be more than 5 for any real numbers x and y). Look for obvious patterns, and use if/ then reasoning strategies for obvious patterns. 7 8 Initial (IN) Look for and express regularity in repeated reasoning Understand and discuss other ideas and approaches. Compose and decompose number situations and relationships through observed patterns in order to simplify solutions. Find and explain subtle patterns. Use a variety of models, symbolic representations, and technology tools to demonstrate a solution to a problem. Combine various tools, including technology, explore and solve a problem as well as justify their tool selection and problem solution. Use appropriate symbols, vocabulary, and labeling to effectively communicate and exchange ideas. See complex and complicated mathematical expressions as component parts. Discover deep, underlying relationships, i.e. uncover a model or equation that unifies the various aspects of a problem such as a discovery of an underlying function. From Hull, T., Harbin Miles, R. and Balka, D. (2012). The common core mathematics standards: Transforming practice though team leadership. Corwin and the National Council of Teachers of Mathematics. Thousand Oaks: CA.