Course Description
MAE4326 – How Children Learn Mathematics is a 3-credit upper-division course in
Florida elementary education programs covering how children develop mathematical understanding and how
teachers support it. It carries a required 15 hours of field experience in a public school.
The title is precise and worth taking literally. This is not a mathematics content course, and it is not
only a methods course; it is about how children's mathematical thinking develops —
what a six-year-old understands about number, what misconception produces a particular wrong answer, and what
instruction moves a child forward. The premise, well supported by research, is that a teacher who understands
the reasoning behind a student's error can address it, while a teacher who sees only a wrong answer
can only re-explain the procedure.
Content covers learning theory applied to mathematics — constructivism, Piaget and
Vygotsky in the mathematical domain, concrete-representational-abstract progression, and the zone of proximal
development; number sense and early number — counting principles, subitizing,
cardinality, and number relationships;
place value — the foundational concept that underlies nearly every later difficulty;
operations — addition, subtraction, multiplication, and division as concepts, problem
types, and the progression from counting to derived facts to fluency;
fractions — the concept, models, equivalence, and operations, and why fractions are the
sharpest predictor of later mathematics success;
decimals, ratio, and proportional reasoning;
geometry and spatial reasoning; measurement;
data and probability; algebraic thinking in the elementary grades;
problem solving — strategies, rich tasks, and productive struggle;
mathematical discourse — questioning, student explanation, and classroom norms;
manipulatives and representations;
assessment — diagnostic interviews, formative assessment, and error analysis;
differentiation and intervention;
English language learners in mathematics; and
mathematics anxiety — including the teacher's own.
Offered at Florida institutions with elementary education programs.
Learning Outcomes
Required Outcomes
- Describe theories of mathematical learning and their instructional implications.
- Describe the developmental progression of children's mathematical thinking.
- Apply the concrete-representational-abstract progression in planning instruction.
- Describe counting principles, subitizing, and the development of number sense.
- Explain place value conceptually and identify common place value misconceptions.
- Describe addition and subtraction problem types and the strategies children use.
- Describe multiplication and division concepts and the progression toward fluency.
- Explain the distinction between conceptual understanding, procedural fluency, and application.
- Describe fraction concepts, models, and common misconceptions.
- Describe proportional reasoning and its development.
- Describe geometric and spatial reasoning development in elementary students.
- Describe measurement concepts and their instructional sequence.
- Describe data analysis and probability appropriate to elementary grades.
- Describe algebraic thinking in the elementary curriculum.
- Select and use manipulatives and representations purposefully.
- Design and facilitate problem-solving tasks that support productive struggle.
- Facilitate mathematical discourse using effective questioning.
- Analyze student work to identify the reasoning behind errors.
- Conduct a diagnostic interview with a student and interpret the results.
- Use formative assessment to inform instructional decisions.
- Differentiate mathematics instruction for varied learners including ELLs.
- Plan and teach a mathematics lesson aligned to Florida standards.
- Describe mathematics anxiety and strategies for reducing it.
- Complete required field experience hours and document observations professionally.
Optional Outcomes
- Conduct a case study of an individual learner's mathematical thinking.
- Analyze a commercial mathematics curriculum against research-based criteria.
- Describe mathematics learning disabilities and intervention approaches.
- Design a family mathematics engagement activity.
- Describe the history of mathematics education reform debates.
- Relate course content to the FTCE Elementary Education K-6 mathematics subtest.
Major Topics
Required Topics
- Learning theory in mathematics — constructivism and sociocultural views.
- The strands of proficiency — conceptual, procedural, strategic, adaptive, disposition.
- CRA progression — concrete, representational, abstract.
- Early number — counting principles, subitizing, and cardinality.
- Number relationships — benchmarks, part-whole, and composition.
- Place value — grouping, positional value, and misconceptions.
- Addition and subtraction — problem types and student strategies.
- Multiplication and division — models, meanings, and progression.
- Basic fact fluency — from counting to derived facts to automaticity.
- Standard algorithms — when and how to introduce them.
- Fractions — concepts, models, equivalence, and operations.
- Decimals and percent — connections to fractions and place value.
- Ratio and proportional reasoning.
- Geometry — van Hiele levels, shape, and spatial reasoning.
- Measurement — attribute, unit, and instrument.
- Data and probability — representation and interpretation.
- Algebraic thinking — patterns, equality, and generalization.
- Problem solving — task selection, launch, and productive struggle.
- Discourse — questioning, talk moves, and classroom norms.
- Manipulatives and representations — selection and purposeful use.
- Assessment — diagnostic interviews, formative tools, and error analysis.
- Differentiation and intervention — MTSS in mathematics.
- Equity and language — ELLs and access to mathematics.
- Mathematics anxiety — causes, effects, and the teacher's role.
- Field experience — observation and participation in a classroom.
Optional Topics
- Individual learner case study.
- Curriculum analysis.
- Mathematics learning disabilities.
- Family engagement in mathematics.
- History of mathematics education reform.
- FTCE mathematics subtest alignment.
Resources & Tools
- Elementary and Middle School Mathematics: Teaching Developmentally (Van de Walle, Karp & Bay-Williams), Pearson — the dominant text in this field and worth keeping for a career.
- Children's Mathematics: Cognitively Guided Instruction (Carpenter et al.), Heinemann — short, research-based, and the clearest treatment of how children actually solve problems.
- Making Sense and the Number Talks series — practical and widely used in Florida districts.
- NCTM (National Council of Teachers of Mathematics) — student membership is inexpensive; Principles to Actions and the Illuminations task library.
- Illustrative Mathematics and Youcubed (Stanford) — free; high-quality tasks and research summaries on mindset and mathematics anxiety.
- IES / What Works Clearinghouse practice guides — free and evidence-graded; the guides on fractions, problem solving, and early mathematics are directly usable.
- FLDOE B.E.S.T. Standards for Mathematics — free; the standards you will actually teach in Florida, including the mathematical thinking and reasoning standards.
- CPALMS (cpalms.org) — free, Florida's own standards-aligned resource and lesson repository. The single most Florida-specific resource for this course.
- Virtual manipulatives (Math Learning Center, Didax, NLVM) — free; useful for planning and for online teaching.
Career Pathways
- Elementary School Teacher (SOC 25-2021) — the primary destination; Florida Elementary Education K-6 certification.
- Mathematics Coach or Interventionist — a district-level role in many Florida districts.
- Exceptional Student Education Teacher (SOC 25-2052) — where mathematics intervention expertise is valuable.
- Middle Grades Mathematics Teacher (SOC 25-2022) — with the appropriate subject-area certification.
- Curriculum Specialist and Instructional Coach — with experience.
- Title I and intervention specialist roles.
- Private Tutor — elementary mathematics tutoring is in steady demand and well paid.
- Educational Publisher or Trainer.
- Graduate study — mathematics education, curriculum and instruction, or educational leadership.
Elementary education appears regularly on Florida's critical teacher shortage area list,
which can carry loan forgiveness and hiring incentives, and mathematics expertise makes an elementary
candidate notably more competitive.
Special Information
⚠ Field hours require a background screening — start it in week one
The 15 hours of observation and participation take place in an approved public school classroom, which
requires district clearance and a Level 2 background screening (FDLE and FBI fingerprinting,
with a fee). Districts process on their own schedules and placements are arranged through the college's field
placement office, so the sequence — apply, clear, be placed, complete hours — takes weeks.
Students who begin in the last month of the term routinely cannot finish. The same screening governs Florida
teacher certification, so any concern should be raised with an advisor early and confidentially.
⚠ Your own mathematics anxiety is course content, not a private matter
Worth naming directly, because it is unusually relevant here. A substantial share of prospective elementary
teachers report anxiety about mathematics, often from their own schooling, and research indicates that
teacher mathematics anxiety transmits to students — measurably, and in some studies
disproportionately to girls. A teacher who signals that mathematics is frightening, or who says "I was never
a math person," teaches that as content.
This is a solvable problem and this course is where to solve it. Most elementary mathematics anxiety comes
from having learned procedures without understanding — which is exactly what the course remedies. Many
students report that finally understanding why the standard algorithms work, or why you invert and
multiply, resolves years of unease. Instructors expect this and generally handle it well; a student who is
anxious should say so rather than hiding it, and should treat the discomfort as the reason to engage rather
than a reason to avoid.
Fractions are the highest-leverage content in the whole course
Worth disproportionate effort. Research consistently finds that fraction knowledge in elementary
school predicts later mathematics achievement more strongly than almost any other elementary topic
— including algebra readiness and high school outcomes. It is also where the largest share of teachers'
own conceptual gaps live.
The specific difficulty is that fractions require abandoning several things that were true about whole
numbers: multiplying no longer makes bigger, dividing no longer makes smaller, and there is no "next" fraction
after a given one. A teacher who can explain why dividing by a fraction produces a larger result, and
who can model it rather than assert the rule, is doing something many practicing teachers cannot. Study this
unit hardest.
Learn to read the error, not just mark it
The distinctive skill of this course and the thing that most improves a novice teacher. Children's wrong
answers are usually systematic rather than careless — the product of a consistent rule
the child has constructed that works in some cases and not others. A student who subtracts 302 − 178 and
gets 276 has applied a coherent rule (always take the smaller digit from the larger); one who says 0.35 is
larger than 0.5 is applying whole-number reasoning to decimals.
Re-explaining the procedure to such a student rarely helps, because they were not failing to hear the
procedure — they were applying a different one. The diagnostic move is to ask the child how
they got their answer and listen. Diagnostic interview assignments in this course exist to build
exactly that habit, and students consistently describe them as the most valuable thing they did.
Florida specifics: B.E.S.T. standards, CPALMS, and the certification exam
Three concrete state items a prospective Florida teacher should know:
- B.E.S.T. Standards for Mathematics are what Florida teaches, having replaced the previous
standards. They include Mathematical Thinking and Reasoning standards that run across grade
levels, and they specify content by grade in detail. Learn to read them; you will plan from them daily.
- CPALMS is Florida's official standards and resource repository, free and searchable by
standard. It is the fastest route from "I have to teach this standard" to a usable task.
- FTCE Elementary Education K-6 certification includes a mathematics
subtest, and it is commonly reported as the hardest of the four. This course is the best preparation
available for it — treat it as exam preparation as well as coursework, and do not defer the subtest.
Requirements and standards in Florida have been revised repeatedly; verify current certification
requirements with FLDOE rather than relying on course material or an earlier cohort.
Understanding and fluency are both required — the debate is a false choice
Worth knowing so a student can navigate the arguments they will encounter in schools. The "math wars"
pitted conceptual understanding against procedural fluency, and the research consensus is that the opposition
is false: the two develop together and reinforce each other. Students need to know that
7 × 8 = 56 without computing it, and to understand what multiplication means; fluency without
understanding is brittle, and understanding without fluency overloads working memory on later problems.
Practically, a new teacher may be placed in a school whose curriculum leans hard one way. Being able to
articulate why both matter — and to supplement whichever the adopted materials neglect — is a
professional competency worth developing now.
Numbering and related courses
Florida carries elementary mathematics methods as MAE4326, and closely related content
under MAE4310/MAE4330 (methods sequences at some institutions),
MAE2801/MAE3812, and the mathematics content courses for teachers
(MGF numbers and MAT-prefixed courses for elementary educators).
SCNS equivalency applies to the same number at the same level, never across numbers, and
because this is a 4000-level program course, a transferring student should confirm the
receiving institution accepts it toward certification requirements rather than as general elective credit.