Mastering Science for the FTCE Elementary Education K-6 Exam

Why This Learning Experience?

This self-paced professional learning experience is designed by an experienced educator to help you learn on your own schedule. Participants complete practical activities, connect ideas to real classroom practice, and build confidence through application-focused learning — with instant, auto-graded feedback along the way.

Learning Experience Overview

Mastering Science for the FTCE Elementary Education K-6 Exam is built for one purpose: getting teacher candidates ready for the Science subtest, one of four separately scored subtests that together make up the FTCE Elementary Education K-6 exam (the others are Language Arts and Reading, Mathematics, and Social Science — each covered in its own course). As of January 1, 2026, this subtest is **45 multiple-choice questions in 70 minutes**. What makes it unusual is that it asks three different kinds of thinking of you, and this course is organized around that split. The first competency is *pedagogical*: how to plan and deliver science instruction, run a safe lab, assess what students understand, and differentiate for the learners in front of you — teacher decisions, not recall. The second competency is about *the nature of science itself*: how scientific knowledge is built, tested, and revised, what different kinds of investigations can and cannot show, and how to read evidence and data honestly. The last three competencies test your own *content knowledge* across three domains: physical science, Earth and space science, and life science. Preparing well means being ready for all three modes: making instructional decisions, reasoning about how science works, *and* knowing the science yourself.

The course is organized into five lessons, each built around one of the subtest’s tested competencies: effective science instruction (inquiry-based planning, hands-on investigation, laboratory and field safety, formative and summative assessment, differentiation, and the use of models and technology); the nature of science (empirical evidence, hypotheses, theories and laws, the difference between a controlled experiment, a comparative investigation and a descriptive study, variables and controls, and interpreting tables, graphs, and claims); physical sciences (properties and states of matter, physical and chemical changes, mixtures and solutions, forces, motion, and simple machines, forms and transformations of energy, heat, light, sound, electricity, and magnetism); Earth and space (Earth’s structure and materials, rocks, minerals, soil, and the rock cycle, weathering, erosion, and plate tectonics, the water cycle, weather versus climate, and the Sun-Earth-Moon system, seasons, phases, eclipses, and the solar system); and life science (cell structures and functions, the organization of living things, plant and animal structures, life cycles and heredity, classification, ecosystems and energy flow, adaptation, and human body systems). The Florida Department of Education does not publish an official percentage weighting for this subtest’s competencies, so — as a course design choice, not as reported state data — this course treats all five as equally important, giving each roughly 20% of the material and about 9 of the 45 scored questions’ worth of attention, with equal representation on the final exam.

Two facts about test day shape every lesson in this course. The first: **nothing is provided.** There is no reference sheet, no formula chart, no periodic table, and no calculator. Whatever you need — how a series circuit differs from a parallel one, why the seasons change, what a producer is, which change is chemical — has to be in your head when the question appears. The second: this subtest leans unusually hard on the classic science misconceptions, the ones most adults still carry from their own elementary classrooms. Seasons caused by distance from the Sun rather than axial tilt. Moon phases caused by Earth’s shadow. Plants “eating” food out of the soil. A theory as a hunch that graduates into a law. So this course does something specific about it: **every distractor in every practice set and quiz is built from a real misconception** — the wrong answers are the mistakes candidates actually make, not filler. Every lesson follows the same rhythm — a narrated content module that walks through the competency with worked examples, common mistakes to avoid, and a test-day strategy section; an untimed practice set for low-stakes repetition; and (for the first four lessons) a graded quiz that checks whether the material has stuck. Nothing in the practice sets or quizzes repeats — every question across every activity was written fresh for this course.

Learning Outcomes

• Select developmentally appropriate, research-based strategies for teaching science practices; use manipulatives, models, scientific equipment, real-world examples, and print and digital representations safely and effectively; design formal and informal experiences that promote curiosity and active inquiry; apply collaborative strategies for introducing formal science terms and surfacing misconceptions; integrate reading strategies and mathematical practices with science; differentiate instruction and assessment; organize and manage a classroom for safe science teaching consistent with state safety procedures; and select diagnostic, formative, and summative assessments along with the technology, tools, and units appropriate for student data collection.
• Explain how scientific knowledge is built, tested, and revised — the dynamic nature of models, laws, mechanisms, and theories; the science and engineering practices carried out through integrated process skills; how experiments differ from other types of scientific investigations; the attitudes and dispositions underlying scientific thinking; the tools and units appropriate to a measurement; how to evaluate and interpret pictorial representations, charts, tables, and graphs of authentic data; and how science connects to the rest of STEM and interacts with technology and society.
• Explain the physical science an elementary teacher is expected to know — physical properties of matter, physical versus chemical changes, phase changes and the energy involved, homogeneous and heterogeneous mixtures, atoms, elements, molecules, and compounds, potential and kinetic energy, forms and transformations of energy, temperature, heat, and heat transfer, electrical circuits with conductors and insulators, and contact and at-a-distance forces.
• Explain the Earth and space science an elementary teacher is expected to know — geologic formations and the mechanisms that change them, rocks, minerals, and soil and how they form, solar energy transferred through Earth’s systems, the causes and effects of atmospheric processes and conditions, conservation of renewable and nonrenewable resources, the Sun-Earth-Moon system, the composition of and relationships among Solar System objects, and major events in space exploration and their effects on society.
• Explain the life science an elementary teacher is expected to know — characteristics of living and nonliving things, cell theory and the structural hierarchy, plant and animal cell structures and functions, classification using the Linnaean system, animal organ systems and their interactions, infectious agents and their transmission and effects, heredity, natural selection, and the scientific theory of evolution, the interdependence of living things and their environment, plant structures, photosynthesis, transpiration, reproduction, and responses to stimuli, and life cycles and growth.

Who Should Participate?

Teacher candidates and educators preparing to sit for the Science subtest of the FTCE Elementary Education K-6 exam (test code 060)