Science Concepts in the Elementary Classroom

Course Description

Science Concepts in the Elementary Classroom prepares future educators to deliver science instruction that aligns with developmental principles and conceptual frameworks appropriate for elementary-grade students. Content encompasses fundamental concepts across life science, physical science, earth and space science, and scientific methodology.

Within the SCNS taxonomy, SCE is the Science Education prefix. Daytona State publishes this at 3 credits, offered fall, spring and summer.

This course carries a burden most education courses do not, and it is worth naming plainly: many elementary teachers arrive with weak science backgrounds and genuine anxiety about the subject, and that anxiety transmits to children. Elementary teachers teach everything, so the person who found science alienating at school is now responsible for whether a room of eight-year-olds finds it interesting — and children read a teacher's discomfort accurately. Repairing the teacher's own relationship with science is therefore part of what this course has to do, and it is why the content is concepts and methodology rather than pedagogy alone.

Daytona State does not publish a contact-hour figure for this course. It is an unsuffixed lecture course, and the institution's lecture convention is 15 contact hours per credit — TAX3001, PSY1012 and SYG2000 are all live at 3 credits and 45 hours. This course is priced at that convention.

Learning Outcomes

Required Outcomes

• Describe fundamental concepts in life science appropriate to elementary grades.
• Describe fundamental concepts in physical science appropriate to elementary grades.
• Describe fundamental concepts in earth and space science.
• Describe the nature of science and how scientific knowledge is built.
• Describe scientific methodology and its variety.
• Distinguish observation, inference, and explanation.
• Describe evidence, argument, and revision in science.
• Identify common student misconceptions in each science area.
• Describe why misconceptions persist and how they are addressed.
• Confront your own misconceptions honestly.
• Describe children's cognitive development as it affects science learning.
• Select concepts and language appropriate to a developmental stage.
• Plan inquiry-based science instruction.
• Distinguish genuine inquiry from activity for its own sake.
• Design and lead a hands-on investigation.
• Ask questions that produce reasoning rather than recall.
• Support scientific discussion and argumentation among children.
• Integrate science with literacy and mathematics.
• Use everyday and low-cost materials effectively.
• Apply safety practice in an elementary science setting.
• Assess science learning formatively and summatively.
• Describe Florida's science standards and assessment expectations.
• Adapt science instruction for diverse learners and language learners.
• Describe strategies for managing your own science anxiety.

Optional Outcomes

• Describe environmental and outdoor education.
• Describe engineering and design in the elementary classroom.
• Describe technology and simulation in science teaching.
• Describe science and equity in participation.
• Describe informal science education and community resources.
• Describe teaching socially contested scientific topics.

Major Topics

Required Topics

• Elementary life science concepts
• Elementary physical science concepts
• Earth and space science concepts
• The nature of science
• Scientific methodology
• Observation, inference, explanation
• Evidence, argument, revision
• Common misconceptions
• Why misconceptions persist
• Confronting your own misconceptions
• Cognitive development and science learning
• Developmentally appropriate concepts and language
• Planning inquiry instruction
• Inquiry versus activity
• Leading investigations
• Questioning for reasoning
• Scientific discussion and argumentation
• Integration with literacy and mathematics
• Everyday and low-cost materials
• Elementary science safety
• Assessing science learning
• Florida standards and assessment
• Adapting for diverse learners
• Managing science anxiety

Optional Topics

• Environmental and outdoor education
• Engineering and design
• Technology and simulation
• Science and equity
• Informal science education
• Teaching contested topics

Resources & Tools

• Florida's science standards (cpalms.org) — free; the standards, resources, and vetted lesson materials Florida teachers actually use. Learn CPALMS now; you will use it for your career.
• National Science Teaching Association (nsta.org) — position statements, safety guidance, and inexpensive student membership.
• NASA and NOAA education resources — free, excellent, and unusually well suited to elementary earth and space science.
• Florida's state parks, springs, museums, and marine science centres — local, cheap, and directly usable; Florida's environment is an outstanding elementary science resource sitting outside the window.
• Everyday materials — the best elementary science needs very little equipment, and building a personal collection of simple demonstrations costs almost nothing.
• Your own curiosity — the single strongest predictor of whether children find science interesting is whether the teacher does.

Career Pathways

• Elementary school teachers — SOC 25-2021; the primary destination.
• Middle school science teaching — SOC 25-2022, with the appropriate subject certification.
• Science coaching and curriculum specialist roles — after classroom experience, and science-confident elementary teachers are genuinely scarce and sought after.
• Informal science education — museums, science centres, zoos, aquariums, and state parks; Florida has an unusually rich sector.
• Environmental education — a natural fit with Florida's ecosystems and a route many teachers take.
• Educational publishing and curriculum development.
• STEM programme coordination in districts and community organisations.
• ⚠ Certification is required to teach in Florida public schools — see this repository's EDE1042, EDE3043 and SLS3355L guides for the FTCE and certification pathway.

Special Information

⚠⚠ Misconceptions are not gaps to be filled — they are working theories that must be confronted

• Children arrive with explanations already in place, built from experience, and those explanations are frequently wrong and genuinely useful to them — which is why simply being told the correct answer does not displace them.
• ⚠⚠ The classic examples are remarkably persistent: that the seasons are caused by the Earth being closer to the sun, that heavier objects fall faster, that plants get their mass from the soil, that the moon's phases are the Earth's shadow. Students can pass a test on the correct answer and revert to the intuition afterwards.
• ⚠ Many adults, including teachers, hold these same misconceptions. That is not a criticism — it is why this course exists. Test your own understanding honestly before teaching it, because a teacher's misconception transfers directly to a class.
• Elicit the existing idea before teaching. Ask children what they think and why, and listen to the reasoning rather than correcting the answer.
• Create the experience that the misconception cannot explain. Conceptual change happens when a working theory visibly fails, not when it is contradicted verbally.
• Give the new explanation something to do. An idea that predicts something the old one got wrong is one children keep.
• ⚠ Be careful with analogies and simplifications, because a simplification taught in year three becomes a misconception to unpick in year eight. Say "this is a useful way to think about it for now" rather than presenting a model as the whole truth.
• Revisit. Conceptual change is slow and it relapses; one good lesson does not settle it.
• Say "I don't know, let's find out" when you do not know. It is the single most valuable sentence a science teacher says, and it models exactly what the subject is.

⚠ Inquiry, not activity — and elementary science safety

• An engaging activity is not automatically an inquiry. The test is whether the children are reasoning from evidence toward a conclusion they did not already have, or following instructions to a known result.
• ⚠ A demonstration that produces a spectacle and no explanation teaches that science is entertainment. Ask what they expect before, and why it happened afterwards.
• Let children make predictions and be wrong. A wrong prediction that is publicly tested is where learning happens, and a classroom where being wrong is safe is a prerequisite for teaching science at all.
• Ask questions with more than one defensible answer, and require evidence for the answer given.
• Integrate with literacy and mathematics — recording, measuring, graphing, and explaining are science and they are also the other subjects; which matters practically, because elementary timetables squeeze science hard.
• ⚠⚠ Safety applies in elementary science too. Eye protection for anything that can splash or fly, no open flames or hazardous chemicals in an elementary classroom, care with allergies and with plant and animal material, and handwashing after every investigation.
• ⚠ Check for allergies before any activity involving food, latex, or animals, and know your school's policy on live animals.
• Supervise closely and plan the logistics — most elementary science accidents are crowding and rushing rather than dramatic failures.
• Follow your district's safety guidance, and remember that you are responsible for the activity you chose.

How Florida course levels affect transfer

The first digit of an SCNS number denotes the year of offering, not transferability. Courses at the 1000 and 2000 levels transfer transparently between Florida public institutions, and 3000 to 4000 is unproblematic since both are upper division. The boundary that actually matters is 2000 to 3000, where lower-division credit generally cannot satisfy an upper-division requirement.

SCE3832 is 3 credits and approximately 45 contact hours, offered fall, spring and summer at Daytona State.

Learn CPALMS and use Florida's own environment as your laboratory — springs, coasts, and state parks are outstanding and local elementary science resources.