Overview
Student Learning Objectives (SLOs) are measures of student
growth that are being used by many states as an alternative/supplement to
standardized tests. SLOs are typically set by individual teachers, usually in consultation
with their principals, and may be based on any of a wide range of student
assessments, including state assessments, commercially available assessments,
and teacher-developed (non-standardized) assessments. They are based on
teachersÕ and principalsÕ knowledge of individual students and assumptions
about studentsÕ expected growth during a school year. SLOs have become popular
in Maryland as part of its newly-mandated teacher evaluation metrics.
Purpose
While the Effect on Student Mathematics Learning Key Assessment provides an opportunity for candidates to demonstrate their ability to improve student learning over the course of a single unit, the SLO project is intended to allow interns to experience the process of gauging student growth over a longer time span (approximately two months). As such, the construct of interest should typically be broader than a particular concept or skill (e.g., solving equations). The SLO project is also intended to allow interns to experience the SLO process prior to becoming full time teachers.
Connections to NCTM
(2012) Teacher Preparation Standards
3b) Analyze and consider
research in planning for and leading students in rich mathematical learning
experiences. |
3f) Plan, select, implement, interpret,
and use formative and summative assessments to inform instruction by
reflecting on mathematical proficiencies essential for all students. |
3g) Monitor studentsÕ progress,
make instructional decisions, and measure studentsÕ mathematical understanding
and ability using formative and summative assessments. |
4d) Demonstrate equitable and
ethical treatment of and high expectations for all students. |
5a) Verify that secondary
students demonstrate conceptual understanding; procedural fluency; the
ability to formulate, represent, and solve problems; logical reasoning and
continuous reflection on that reasoning; productive disposition toward
mathematics; and the application of mathematics in a variety of contexts
within major mathematical domains. |
5c) Collect, organize, analyze,
and reflect on diagnostic, formative, and summative assessment evidence and
determine the extent to which studentsÕ mathematical proficiencies have
increased as a result of their instruction. |
6a) Take an active role in their
professional growth by participating in professional development experiences
that directly relate to the learning and teaching of mathematics. |
6b) Engage in continuous and
collaborative learning that draws upon research in mathematics education to
inform practice; enhance learning opportunities for all studentsÕ
mathematical knowledge development; involve colleagues, other school
professionals, families, and various stakeholders; and advance their
development as a reflective practitioner. |
7a) Engage in a sequence of
planned field experiences and clinical practice prior to a full-time student
teaching/internship experience that include observing and participating in
both middle and high school mathematics classrooms and working with a diverse
range of students individually, in small groups, and in large class settings
under the supervision of experienced and highly qualified mathematics
teachers in varied settings that reflect cultural, ethnic, linguistic,
gender, and learning differences. |
7c) Develop knowledge, skills,
and professional behaviors across both middle and high school settings;
examine the nature of mathematics, how mathematics should be taught, and how students
learn mathematics; and observe and analyze a range of approaches to
mathematics teaching and learning, focusing on tasks, discourse, environment,
and assessment. |
Requirements
1.
The SLO
description must follow the Anatomy of a Student Learning Objective worksheet.
a.
All statements
should be tailored to the target class(es) and subject(s), as determined by the intern and mentor
teacher.
b.
Math SLOs must be
written to target the first Common Core Standard of Mathematical Practice: Make sense of problems
and persevere in solving them.
Mathematically
proficient students start by explaining to themselves the meaning of a problem
and looking for entry points to its solution. They analyze givens, constraints,
relationships, and goals. They make conjectures about the form and meaning of
the solution and plan a solution pathway rather than simply jumping into a
solution attempt. They consider analogous problems, and try special cases and
simpler forms of the original problem in order to gain insight into its solution.
They monitor and evaluate their progress and change course if necessary. Older
students might, depending on the context of the problem, transform algebraic
expressions or change the viewing window on their graphing calculator to get
the information they need. Mathematically proficient students can explain
correspondences between equations, verbal descriptions, tables, and graphs or
draw diagrams of important features and relationships, graph data, and search
for regularity or trends. Younger students might rely on using concrete objects
or pictures to help conceptualize and solve a problem. Mathematically
proficient students check their answers to problems using a different method,
and they continually ask themselves, ÒDoes this make sense?Ó They can understand
the approaches of others to solving complex problems and identify
correspondences between different approaches.
2. Baseline data collection
must be collected by Seminar 2 (Friday, October 24, 2014). Mentor and intern
should agree on the frequencies tallied for each day observed to ensure
accuracy and reliability. A minimum
grade of ÒProficientÓ is required for baseline data collection for advancement
into Phase II.
3. The intern must develop an
intervention plan in consultation with the mentor teacher. The essential
question to address here is, ÒWhat teaching strategies will be used to increase
student engagement during the intervention period?Ó The intervention plan,
along with the SLO description, must be completed and turned in to the secondary
mathematics program coordinator by Seminar 3 (Friday, November 14, 2014). A minimum grade of ÒProficientÓ is required
for intervention plan and SLO description for advancement into Phase II.
4. Enactment of the
intervention plan will take place during Phase II (at least 6 weeks in length).
Mentor and intern should agree on the frequencies tallied for each day observed
to ensure accuracy and reliability.
5. Interns must present their
SLO to the designated administrator at their field placement.
6. Interns must present their
SLO at the Undergraduate Research and Creative Achievement Day (URCAD).
Process
1. Collect baseline data.
2. Develop intervention plan
(e.g., instructional strategies, timeline) with mentor.
3. Write SLO description.
4. Write abstract for URCAD.
5. Enact SLO plan and collect
data.
6. Analyze data. During one or
more of the three content-specific seminar sessions during Phase II, the
interns will begin discussing findings.
7. Create a poster presentation
for URCAD.
8. The secondary program
requests that interns attend the End-of Phase II intern celebration and that
the interns bring their URCAD posters to set up as an exhibit.
Rubric
Criterion |
Limited (1) |
Developing (2) |
Proficient (3) |
Exemplary (4) |
Priority
of Standard |
The selected content does not align with Maryland’s
College and Career-Ready Standards. Only a standard is
listed. No rationale provided
that specifies the connection with Maryland’s College and Career-Ready
Standards. |
The selected content does align with Maryland’s
College and Career-Ready Standards. Rationale is provided along
with the stated standard, however the connection to Maryland’s College and
Career-Ready Standards is implied, not EXPLICITLY linked. or The scope of content is NOT appropriate for the length of the
instruction interval. |
Same as 2 plus: Rationale is provided along
with the stated standard that EXPLICITLY indicates why/how the content is
critical for attainment of College and Career Readiness. and The scope of content is
appropriate for the length of the instruction interval. |
Same as 3 plus: The content reflects a high
priority for district and school improvement. |
Rigor
of Target: Baseline
Data |
There is insufficient information
from studentsÕ past performance or baseline data is used to justify the
objective and provide reasonable comparison data. |
The target is anchored in
baseline data, including historical data (i.e. district, school, and student
level data) multiple measures may be provided. |
Same as 2 plus: Multiple measures are
provided. |
Same as 3 plus: The target appropriately
addresses subgroup achievement gaps and if appropriate, the SLO differentiates
targets for individuals or groups of students based on baseline data so that
all targets are rigorous yet attainable. |
Rigor
of Target: Baseline
Data Rationale |
No rationale provided. |
Rationale is provided along
with the stated Baseline measures, however,
the connection is implied, not EXPLICITLY linked. |
The rationale explains how
the rigor and attainability of the numerical target was determined. For example, the target is based on
the past performance of students or the expectation of a yearÕs growth or the
mastery of a standard or incremental improvement. |
Same as 3 plus: The rationale includes why
specific subpopulations are also targeted. |
Rigor
of Target: Target |
No clear description of
target(s) is provided. |
Targets are provided,
however, sufficient detail is missing to determine the criteria for how the
target will be attained. |
There is a clear description of where students
are expected to be at the end of the interval of instruction. The target(s) are measurable, rigorous, and
attainable for the intervention period. |
Targets are tiered to be
both rigorous and attainable for students at various levels. |
Rigor
of Target: Target Rationale |
No rationale provided |
Rationale is provided along
with the stated target measures, however, the
connection is implied, not EXPLICITLY linked. |
The rationale explains how
the rigor and attainability of the numerical target was determined. For example, the target is based on
the past performance of students or the expectation of a yearÕs growth or the
mastery of a standard or incremental improvement. |
Same as 3 plus: The rationale includes why
specific subpopulations are also targeted. |
Quality
of Measure & Evidence |
Some of the source(s) of evidence implies that the target has been met,
however the measures may not be
appropriately aligned with the standards and/or target and the measures may not be
appropriate for the student populations. |
The source(s) of evidence implies that the target has been met,
however some of the measures may not be appropriately aligned with the
standards and/or target or Some of the measures may
not be appropriate for the student populations. |
The source(s) of evidence provides
the data needed to determine if the target has been met. The measure(s) are aligned
to the standards and provides evidence relative to the target. The measure is appropriate
for the student population. The measure meets the
criteria established by the state or district. |
Same as 3 plus: The evidence provides
multiple ways for students to demonstrate their knowledge/understanding. |
Action
Plan |
No description or timeline
of when |
Provides general description
of learning activities/strategies that will be employed for supporting
students in reaching the specified targeted learning goals. |
Clear and concise
description of the learning activities (lessons) that will be employed to
support the student learning of the desired SLO. Activities follow a logical
trajectory. Includes assessment points
indicating both formative and summative assessments. |
Same as 3 plus: Learning activities include
specific and varied use of Òbest instructionalÓ practices. |
Action
Plan: Rationale |
No rationale is provided |
Rationale for why the
specific learning activities were selected is vague. |
Rationale for why specific learning
activities and instructional practices are being utilized is clear and
concise. Connections to appropriate
teaching journals as a means for supporting the selection of various learning
activities or practices. |
Same as 3 plus Connections to appropriate
teaching journals to support rationale are provided for both learning
activities and instructional
practices |
Target
Results— |
No attainment of target. |
Insufficient attainment of
target. |
Partial attainment of
target. |
Full attainment of target: |
Target
Results Discussion |
No discussion of results. |
Vague description of
results. Strengths and weaknesses
of action plan are described but no
explicit connections between learning activities and/or instructional strategies
and the level of success of target attainment are included. |
Detailed description of
results. Strengths and weaknesses of action plan are described with explicit connections between
learning activities and/or instructional strategies and the level of success
of target attainment are included. |
Same as 3 plus. Description of specific
areas of professional development that the teacher may want to participate
based upon the targeted results.
|
NCTM
3b) Analyze and consider research in planning for and leading students in
rich mathematical learning experiences. |
The analysis and
consideration of research in planning for and leading students in rich
mathematical learning experiences is
minimally or not evident. |
The analysis and
consideration of research in planning for and leading students in rich
mathematical learning experiences is
vague, implicit, or imprecise. |
The analysis and
consideration of research in planning for and leading students in rich mathematical
learning experiences is explicit. |
The analysis and
consideration of research in planning for and leading students in rich
mathematical learning experiences is clear and
concise with supporting evidence. |
NCTM 3f.1)
Plan, select, implement, interpret, and use formative assessments to inform
instruction by reflecting on mathematical proficiencies essential for all
students. |
The planning, selecting,
implementing, interpreting, and using of formative assessments to inform
instruction by reflecting on mathematical proficiencies essential for all
students is minimally or not evident. |
The planning, selecting,
implementing, interpreting, and using of formative assessments to inform
instruction by reflecting on mathematical proficiencies essential for all
students is vague, implicit, or
imprecise. |
The planning, selecting,
implementing, interpreting, and using of formative assessments to inform
instruction by reflecting on mathematical proficiencies essential for all students
is explicit. |
The planning, selecting,
implementing, interpreting, and using of formative assessments to inform
instruction by reflecting on mathematical proficiencies essential for all
students is clear and concise with
supporting evidence. |
NCTM
3f.2) Plan, select, implement, interpret, and use summative assessments to
inform instruction by reflecting on mathematical proficiencies essential for
all students. |
The planning, selecting,
implementing, interpreting, and using of summative assessments to inform
instruction by reflecting on mathematical proficiencies essential for all
students is minimally or not evident. |
The planning, selecting,
implementing, interpreting, and using of summative assessments to inform
instruction by reflecting on mathematical proficiencies essential for all
students is vague, implicit, or
imprecise. |
The planning, selecting,
implementing, interpreting, and using of summative assessments to inform
instruction by reflecting on mathematical proficiencies essential for all
students is explicit. |
The planning, selecting,
implementing, interpreting, and using of summative assessments to inform
instruction by reflecting on mathematical proficiencies essential for all
students is clear and concise with
supporting evidence. |
NCTM
3g) Monitor studentsÕ progress, make instructional decisions, and measure
studentsÕ mathematical understanding and ability using formative and
summative assessments. |
The monitoring of studentsÕ
progress, making instructional decisions, and measuring studentsÕ
mathematical understanding and ability using formative and summative
assessments is minimally or not
evident. |
The monitoring of studentsÕ
progress, making instructional decisions, and measuring studentsÕ
mathematical understanding and ability using formative and summative
assessments is vague, implicit, or
imprecise. |
The monitoring of studentsÕ
progress, making instructional decisions, and measuring studentsÕ
mathematical understanding and ability using formative and summative
assessments is explicit. |
The monitoring of studentsÕ
progress, making instructional decisions, and measuring studentsÕ
mathematical understanding and ability using formative and summative
assessments is clear and concise with
supporting evidence. |
NCTM
4d) Demonstrate equitable and ethical treatment of and high expectations for
all students. |
The equitable and ethical
treatment of and high expectations for all students is minimally or not evident. |
The equitable and ethical
treatment of and high expectations for all students is vague, implicit, or imprecise. |
The equitable and ethical
treatment of and high expectations for all students is explicit. |
The equitable and ethical
treatment of and high expectations for all students is clear and concise with supporting evidence. |
NCTM 5a.1) The teacher verifies that secondary students
demonstrate conceptual understanding and procedural fluency. |
Verification of both conceptual
understanding and procedural fluency is
minimally or not evident. |
Verification of both
conceptual understanding and procedural fluency is vague, implicit, or imprecise. |
Verification of both
conceptual understanding and procedural fluency is explicit. |
Verification of both
conceptual understanding and procedural fluency is clear and concise with supporting evidence. |
NCTM 5a.2) The teacher verifies that secondary students
demonstrate the ability to formulate, represent, and solve problems. |
Verification of the ability
to formulate, represent, and solve problems is minimally or not evident. |
Verification of the ability
to formulate, represent, and solve problems is vague, implicit, or imprecise. |
Verification of the ability
to formulate, represent, and solve problems is explicit. |
Verification of have the
ability to formulate, represent, and solve problems is clear and concise with supporting evidence. |
NCTM 5a.3) The teacher verifies that secondary students demonstrate
logical reasoning and continuous reflection on that reasoning. |
Verification of logical
reasoning and continuous reflection on that reasoning is minimally or not evident. |
Verification of logical
reasoning and continuous reflection on that reasoning is vague, implicit, or imprecise. |
Verification of logical
reasoning and continuous reflection on that reasoning is explicit. |
Verification of logical
reasoning and continuous reflection on that reasoning is clear and concise with supporting evidence. |
NCTM 5a.4) The teacher verifies that secondary students apply
mathematics in a variety of contexts within major mathematical domains. |
Verification that secondary
students apply mathematics in a variety of contexts within major mathematical
domains is minimally or not evident. |
Verification that secondary
students apply mathematics in a variety of contexts within major mathematical
domains is vague, implicit, or
imprecise. |
Verification that secondary
students apply mathematics in a variety of contexts within major mathematical
domains is explicit. |
Verification that secondary
students apply mathematics in a variety of contexts within major mathematical
domains is clear and concise with
supporting evidence. |
NCTM 5c)
Collect, organize, analyze, and reflect on diagnostic, formative, and
summative assessment evidence and determine the extent to which studentsÕ
mathematical proficiencies have increased as a result of their instruction. |
Plan
for collecting, organizing, analyzing, and reflecting on diagnostic, formative,
and summative assessment evidence and determining the extent to which
studentsÕ mathematical proficiencies have increased as a result of their
instruction is minimally or not
evident. |
Plan
for collecting, organizing, analyzing, and reflecting on diagnostic, formative,
and summative assessment evidence and determining the extent to which
studentsÕ mathematical proficiencies have increased as a result of their
instruction is vague, implicit, or
imprecise. |
Plan
for collecting, organizing, analyzing, and reflecting on diagnostic, formative,
and summative assessment evidence and determining the extent to which
studentsÕ mathematical proficiencies have increased as a result of their
instruction is explicit. |
Plan
for collecting, organizing, analyzing, and reflecting on diagnostic, formative,
and summative assessment evidence and determining the extent to which
studentsÕ mathematical proficiencies have increased as a result of their
instruction is clear and concise with
supporting evidence. |
NCTM
6a) Take an active role in their professional growth by participating in
professional development experiences that directly relate to the learning and
teaching of mathematics. |
Professional growth through
active engagement in experiences that directly relate to the learning and
teaching of mathematics is minimally
or not evident. |
Professional growth through
active engagement in experiences that directly relate to the learning and
teaching of mathematics is vague,
implicit, or imprecise. |
Professional growth through
active engagement in experiences that directly relate to the learning and
teaching of mathematics is explicit. |
Professional growth through
active engagement in experiences that directly relate to the learning and
teaching of mathematics is clear and
concise with supporting evidence. |
NCTM
6b.1) Engage in continuous and collaborative learning that draws upon
research in mathematics education to inform practice. |
Engagement in continuous and
collaborative learning that draws upon research in mathematics education to
inform practice is minimally or not
evident. |
Engagement in continuous
and collaborative learning that draws upon research in mathematics education
to inform practice is vague, implicit,
or imprecise. |
Engagement in continuous
and collaborative learning that draws upon research in mathematics education
to inform practice is explicit. |
Engagement in continuous
and collaborative learning that draws upon research in mathematics education
to inform practice is clear and
concise with supporting evidence. |
NCTM
6b.2) Enhance learning opportunities for all studentsÕ mathematical knowledge
development |
The enhancement of learning
opportunities for all studentsÕ mathematical knowledge development is minimally or not evident. |
The enhancement of learning
opportunities for all studentsÕ mathematical knowledge development is vague, implicit, or imprecise. |
The enhancement of learning
opportunities for all studentsÕ mathematical knowledge development is explicit. |
The enhancement of learning
opportunities for all studentsÕ mathematical knowledge development is clear and concise with supporting
evidence. |
NCTM
6b.3) Involve colleagues, other school professionals, families, and various
stakeholders. |
The involvement of
colleagues, other school professionals, families, and various stakeholders is minimally or not evident. |
The involvement of
colleagues, other school professionals, families, and various stakeholders is vague, implicit, or imprecise. |
The involvement of
colleagues, other school professionals, families, and various stakeholders is explicit. |
The involvement of
colleagues, other school professionals, families, and various stakeholders is clear and concise with supporting
evidence. |
NCTM
6b.4) Advance development as a reflective practitioner. |
The advancement of
development as a reflective practitioner is
minimally or not evident. |
The advancement of development
as a reflective practitioner is vague,
implicit, or imprecise. |
The advancement of
development as a reflective practitioner is
explicit. |
The advancement of
development as a reflective practitioner is
clear and concise with supporting evidence. |
NCTM 7c.1) Demonstrate knowledge, skills, and
professional behaviors at both middle and high school settings. |
The demonstration of knowledge, skills, and professional behaviors is minimally or not evident or
is minimally evident. |
The demonstration of knowledge, skills, and professional behaviors is vague, implicit, or
imprecise. |
The demonstration of knowledge, skills, and professional behaviors is explicit. |
The demonstration of knowledge, skills, and professional behaviors is clear and concise with
supporting evidence. |
NCTM 7c.2) Examine the nature of mathematics,
how mathematics should be taught, and how students learn mathematics. |
Examination of the nature of mathematics, how mathematics should be taught,
and how students learn mathematics is minimally or not evident or is minimally evident. |
Examination of the nature of mathematics, how mathematics should be
taught, and how students learn mathematics is vague, implicit, or imprecise. |
Examination of the nature of mathematics, how mathematics should be
taught, and how students learn mathematics is explicit. |
Examination of the nature of mathematics, how mathematics should be
taught, and how students learn mathematics is clear and concise with supporting
evidence. |
NCTM
7c.4) Participate in innovative or transformative initiatives, partnerships,
or research projects related to the teaching of secondary |
The
innovation/transformative nature of the SLO research project for enhancing
the teaching of secondary mathematics is
minimally or not evident. |
The
innovation/transformative nature of the SLO research project for enhancing
the teaching of secondary mathematics is
vague, implicit, or imprecise. |
The
innovation/transformative nature of the SLO research project for enhancing
the teaching of secondary mathematics is
explicit. |
The
innovation/transformative nature of the SLO research project for enhancing
the teaching of secondary mathematics is
clear and concise with supporting evidence. |
Connections to other assessments
1. Contextual Analysis
2. Clinical Practice Performance Assessment
3. Effect on Student Learning
Grader(s)
Secondary Mathematics Program Coordinator
Additional Resources
1. Common Core Standards of Mathematical Practice: http://www.corestandards.org/Math/Practice/
2. National Council of Teachers of Mathematics (NCTM) Focus on Reasoning and Sense Making series: http://www.nctm.org/standards/content.aspx?id=23749
3. NCTM Process Standards (Part of the Principles and Standards for School Mathematics, freely accessible online with NCTM membership).
Problem
Solving Instructional programs
from PreK-12 should enable all students to— á
Build new mathematical knowledge through problem solving á
Solve problems that arise in mathematics and in other contexts á
Apply and adapt a variety of appropriate strategies to solve
problems á
Monitor and reflect on the process of mathematical problem
solving Reasoning
and Proof Instructional programs
from PreK-12 should enable all students to— á
Recognize reasoning and proof as fundamental aspects of
mathematics á
Make and investigate mathematical conjectures á
Develop and evaluate mathematical arguments and proofs á
Select and use various types of reasoning and methods of proof
Communication Instructional programs
from PreK-12 should enable all students to— á
Organize and consolidate their mathematical thinking through
communication á
Communicate their mathematical thinking coherently and clearly
to peers, teachers, and others á
Analyze and evaluate the mathematical thinking and strategies
of others; á
Use the language of mathematics to express mathematical ideas
precisely. Connections Instructional programs
from PreK-12 should enable all students to— á
Recognize and use connections among mathematical ideas á
Understand how mathematical ideas interconnect and build on
one another to produce a coherent whole á
Recognize and apply mathematics in contexts outside of
mathematics Representation Instructional programs
from PreK-12 should enable all students to— á
Create and use representations to organize, record, and
communicate mathematical ideas á
Select, apply, and translate among mathematical
representations to solve problems á
Use representations to model and interpret physical, social,
and mathematical phenomena |
Mathematics SLOPE Data Collection Form
Date:___________________________ Class:__________________________
Directions: Tally the number of
times students engage in specific mathematical practices in separate topics.
Tally a behavior observed multiple times during one topic as one. Tally the
same behavior during the same topic by more than one student as one.
Student Behaviors |
Frequency |
|
Implicit |
Explicit |
|
a.
Students
start to solve a problem by explaining to themselves the meaning of a problem
and looking for entry points to its solution. |
|
|
b.
Students
analyze givens, constraints, relationships, and goals. |
|
|
c.
Students
make conjectures about the form and meaning of a solution |
|
|
d.
Students
plan a solution pathway rather than simply jumping into a solution attempt. |
|
|
e.
Students
consider analogous problems, and try special cases and simpler forms of the original
problem in order to gain insight into its solution. |
|
|
f.
Students
monitor and evaluate their progress and change course if necessary. |
|
|
g.
Students
transform algebraic expressions when needed to get the information needed. |
|
|
h.
Students
change the viewing window on their graphing calculator to get the information
needed. |
|
|
i.
Students
explain correspondences between equations, verbal descriptions, tables, and
graphs |
|
|
j.
Students
draw diagrams of important features and relationships, graph data, and search
for regularity or trends. |
|
|
k.
Students
use concrete objects or pictures to help conceptualize and solve a problem. |
|
|
l.
Students
check their answers to problems using a different method. |
|
|
m.
Students
continually ask themselves, ÒDoes this make sense?Ó |
|
|
n.
Students
identify correspondences between different approaches to solving complex
problems. |
|
|
Implicit = Indicated, suggested, or
performed without being explicitly stated.
Explicit = Discussed, described, or performed AND
stated clearly and specifically.
Intern Initials_________ Mentor
Initials________
Directions: Tally the number of times the teacher engages in behaviors that support
student engagement in Mathematical Practice 1 Problem Solving. Tally a behavior
observed multiple times during one topic as one.
Teacher Behaviors |
Frequency |
|
Implicit |
Explicit |
|
1.
Create an
environment for exploring and explaining patterns. |
|
|
2.
Encourage
the use of different approaches to determine a solution. |
|
|
3.
Encourage
the use of different approaches to check a solution. |
|
|
4.
Support
the use of a second strategy (and a third?) to solve problems, if the first
strategy does not work. |
|
|
5.
Think
aloud when solving a problem. |
|
|
6.
Offer
authentic performance tasks. |
|
|
7.
Use open-ended
questioning that makes connections with previously worked problems that
appeared difficult. |
|
|
8.
Encourage
the identification of mathematical patterns which lead to the most effective
solution path. |
|
|
9.
Encourage
varied representations and approaches when solving word problems, such as
writing equations to represent a given scenario. |
|
|
10. Require
thinking about the sensibleness of results at each step in the solution
process. |
|
|
11. Ask
questions that require conceptual understanding of and fluency with
mathematical composition and configurations. |
|
|
12. Create
a safe and collaborative environment. |
|
|
13. Model
respectful discourse behaviors. |
|
|
14. Promote
student-to-student discourse. (Do not mediate the discussion). |
|
|
15. Encourage
students to justify their conclusions, communicate them to others, and
respond to the arguments of others. |
|
|
16. Demonstrate
the application of prior knowledge and strategies to solve problems. |
|
|
17. Facilitate
discussion in evaluating the appropriateness of one model versus another
model. |
|
|
18. Show
how to relate the use of diagrams, tables, graphs, and formulas with important
quantities. |
|
|
19. Discuss
with students their choice of variables and procedures. |
|
|
Implicit = Indicated, suggested, or
performed without being explicitly stated.
Explicit = Discussed, described, or performed
AND stated clearly and specifically.
Student Learning Objective Template
Title |
|
Content
Area |
|
Grade
Level |
|
Students |
|
Interval
of Instruction |
|
Objective
Statement
Rationale
Aligned Standards
Baseline Data/Information
Target(s)
Rationale for Target(s)
Evidence Source(s)