C908 Integrated Physical Sciences, catalog number SCIE 5020, is the two-CU School of Education version of the physical science survey: basic principles of physics, chemistry and the Earth sciences, with the weight placed on scientific reasoning rather than on coverage. It sits in Teachers College plans for candidates who will stand in front of a class and be asked why the sky changes colour at sunset. The content is the same physical world the undergraduate course describes. The demand is different, because you are learning it in order to teach it.
What a two-CU science survey for teachers is really asking
Two competency units across three sciences is a compression, and the compression tells you where the course puts its weight. A teacher preparation survey cannot make you a physicist. What it can do is make sure you hold the core explanatory models firmly enough that you never teach a wrong one, and that you can tell the difference between a scientific claim and a plausible sentence. That second skill is the reason the catalog description says scientific reasoning out loud.
The practical consequence for candidates is that C908 rewards depth on a small number of big ideas over shallow recognition of many. Conservation of energy, the particle model of matter, the periodic organisation of the elements, force and motion, the rock and water cycles, the scale of geological time. Each of these carries a matching set of student misconceptions that you will meet in a classroom within your first month of teaching. Knowing that heavier objects do not fall faster in a vacuum is content knowledge. Knowing that most eleven year olds believe they do, and being able to design the demonstration that changes their mind, is what the Teachers College version of this course is pointing at.
The trap is treating the graduate code as an easier version of the undergraduate one because the CU count is lower. Fewer units means less time, not less material. Candidates who plan C908 as a fortnight course tend to find that the Earth science strand, which most adults last studied at fourteen, takes as long on its own as they allowed for everything.
From your rubric to a working outline
The scored detail for any WGU course lives inside your Course of Study, not in the public catalog, so the first hour on C908 belongs to your own assessment materials rather than to content. Read the aspects, count them, and write them down as headings before you write a sentence of substance. Each aspect is scored on its own against a three-point scale and a score of 2 in every aspect is what passes a task. There is no averaging across aspects, so an excellent chemistry explanation cannot rescue a thin one on wave behaviour.
Where your course is assessed by written work, the aspect list is your outline and the rubric's nouns are your headings. Teacher candidates resist this more than most students, because education writing rewards flowing prose elsewhere in the programme. In competency scoring it costs you. An evaluator scoring six aspects should be able to find all six by reading down the page, not by hunting inside a well-written essay.
The word budget, worked. Take a rubric with four scored aspects and directions asking for about 1,320 words. Reserve 100 words to open with the science idea and the grade band you are writing for, and 80 to close, leaving 1,140 for the scored body. Four into 1,140 gives roughly 285 words per aspect. Where one aspect asks you to connect content to instruction, weight it up to about 380 and take the extra from whichever aspect is pure recall. Recall aspects reach full credit quickly and then stop earning; application aspects keep earning right up to the word limit.
One planning note specific to science-for-teachers work. If an aspect asks for an explanation a pupil could follow, write it at that level in the submission itself rather than writing a graduate explanation and adding a note that you would simplify it. Evaluators score what is on the page.
A structure that carries a science explanation into a classroom
Where the task directions set out their own arrangement, those directions govern. Where they do not, this shape suits a submission that has to be both scientifically correct and instructionally usable.
| Section | Content | Why evaluators weight it |
|---|---|---|
| Science idea, stated cleanly | The principle in one accurate sentence, then the same idea in language a pupil would follow | Two registers in one place shows you hold the idea rather than the wording |
| Evidence base | The observation, experiment or measurement that supports the principle | Distinguishes science from assertion, which is the reasoning strand of the course |
| Common misconception | The wrong model pupils actually hold, stated as they would state it | Named misconceptions are the fastest signal that you understand the idea deeply |
| Corrective demonstration | A concrete activity or observation that makes the wrong model fail visibly | Scored where an aspect asks for application rather than description |
| Cross-strand connection | Where the same principle appears in the other sciences on the syllabus | The integration the course title promises and the one candidates most often skip |
| Limits of the model | The conditions under which the simple explanation stops being true | Prevents teaching a simplification as though it were the whole picture |
| References | Course materials, standards documents and any outside source, in the required style | Uncited science definitions read as lifted and trigger similarity flags |
The misconception row does more work than any other. A candidate who can write the wrong idea convincingly, in a pupil's voice, has demonstrated the content knowledge without needing to recite it.
Evidence craft in a teacher preparation science course
Science writing for teachers draws on two different kinds of authority and confuses them at its peril. One is the science itself, which is settled and can be stated. The other is pedagogy, which is contested and has to be attributed. Writing that a demonstration works is a claim about teaching, not about physics, and it needs a source or an explicit framing as your own reasoning.
- Anchor content claims to the science standards your programme uses, and cite the standards document itself rather than paraphrasing it from memory.
- Keep units attached to every quantity. A teacher who writes a bare number on a whiteboard teaches pupils to do the same, and evaluators reading a science course notice.
- Separate what is observed from what is inferred. The fossil record is observation; the age it implies is inference from dating methods that themselves need naming.
- When you describe an activity, give the materials and the observable outcome. An activity with no stated outcome cannot be scored as a corrective demonstration.
- Cite sources for pedagogical claims in the style your directions require, and keep the reference list consistent with the in-text form.
- Avoid long quotations of textbook definitions. Restating a definition in your own accurate words is both safer and better evidence that you hold the idea.
The strongest submissions in a course like this name the boundary of the simplification they are teaching. Telling pupils that atoms are tiny solar systems is useful at one age and wrong at another. A candidate who says so, in a sentence, has shown a kind of judgment the rubric can reward wherever an aspect asks about accuracy.
What separates Competent from a submission sent back
Aspects are scored independently, so returns are local. A C908-style submission that comes back has usually satisfied most of its aspects and left one asking for something it never received.
- Each scored aspect sits under its own heading in the rubric's own language, so nothing has to be searched for.
- Every scientific claim in the submission is one you could defend to a colleague who teaches the subject.
- Any instructional suggestion is specific enough to run on a Tuesday morning, with materials named.
- Content and pedagogy stay visibly separate, so an evaluator can see which claims rest on science and which rest on teaching literature.
- Nothing is asserted without either a source or an explicit line marking it as your own reasoning.
Performance assessment work can be revised and resubmitted with no grade penalty at WGU, which changes what a return costs. It is not a mark against you; it is time. In a six-month flat-rate term where the meaningful number is courses closed rather than hours worked, a two-CU course that takes two rework cycles has quietly consumed the slot you were holding for something bigger.
Where C908 carries a proctored objective assessment, the line is fixed. Proctored exams are yours to sit. We prepare only: content mapping across the three strands, drilled relationships, practice problems and a straight answer on whether you are ready. We do not sit or assist during any assessment and never ask for portal credentials.
Five mistakes teacher candidates make in C908
- Reading for recognition instead of explanation. If you cannot explain why a helium balloon rises without using the word lighter, you do not yet hold the idea well enough to teach it.
- Underestimating Earth science. Most adults last met plate tectonics, rock cycles and geological time as children, and the gap between childhood familiarity and teachable understanding is wider here than anywhere else in the course.
- Writing pedagogy where the aspect asked for content. A lesson plan is not an explanation of refraction. If the aspect asks what happens and why, answer that first and put instruction in the aspect that asks for it.
- Teaching a simplification as the truth. Several standard classroom models are approximations. Using one is fine; presenting it as complete is a content accuracy problem an evaluator can name.
- Planning two CUs as two weeks of light work. The unit count reflects assessed scope, not the reading required to reach it, and candidates who front-load the physics strand routinely run out of term in the chemistry one.
How support works on this course
Send the Course of Study materials for this course and whatever the assessment requires. Work comes back mapped to your scored aspects, with the science stated at both a graduate and a classroom register, misconceptions named where they help, and every claim either sourced or marked as reasoning. You also get a short walkthrough of the choices behind the draft, because the pattern is the part that transfers to the next Teachers College course rather than the content.
If your version of the course is exam-facing, the help changes shape: a three-strand readiness map, drilled relationships and constants, and practice that shows you which strand is genuinely weak rather than which one is uncomfortable.
Questions candidates ask about C908
Is C908 the same course as SCIE 5020?
What is the difference between C908 and C165?
Can you take a proctored exam for me?
Working the science survey in a Teachers College term?
Share your Course of Study materials plus the assessment specifics. You get aspect-mapped work with the science stated at both registers, plus a study map across all three strands.
Where C908 sits in WGU's programs
The July 2026 catalog places this code in 3 current WGU programs. Open a program page for the complete standard path and term positions. The live Degree Plan remains authoritative after transfer credit, substitutions, and mentor planning.
The assessments, one by one
The public catalog does not publish this course's PA/OA identity or task count. WGU Tutors publishes at most one PA manual per course and only from a WGU-controlled public rubric. Until that source exists, PA help begins from the student's real Course of Study and OA support remains preparation only.