NBPTS AYA Science study plan
NBPTS AYA Science · Give each week a clear focus.
8 weeks · About 7 hours per week
Science Content Knowledge and Conceptual Understanding
Map the Domain 1 blueprint into a one-page concept inventory covering physical, life, Earth/space, and crosscutting ideas, then rank each area by your own confidence.
Explain from memory the core energy, matter, and force concepts for your certification level, then check each explanation against a trusted textbook and log every gap.
Solve 20 mixed-discipline practice items untimed and tag each error as a content gap, a reading error, or a reasoning error.
Build a spaced-repetition deck of no more than 60 cards for the weakest three content areas, each card testing one idea.
Your checkpoint
A confidence-ranked concept inventory plus an error-tagged log of 20 practice items and an initial 60-card deck.
Science Content Knowledge and Conceptual Understanding & Scientific Inquiry and Investigation
Deepen the two weakest content areas from week 1 by writing a 150-word causal explanation for each key idea and self-scoring it against source material.
Describe how to design a controlled investigation, including variable identification, controls, replication, and measurement error, and apply that framework to three sample scenarios.
Interpret data presented as tables, graphs, and simple statistics, identifying trends, outliers, and claims the data do not support.
Connect at least four crosscutting concepts, such as cause and effect, systems, and scale, to specific content you reviewed.
Your checkpoint
A two-page summary of weak content areas with worked explanations and a completed inquiry-design worksheet for three scenarios.
Science Content Knowledge and Conceptual Understanding & Scientific Inquiry and Investigation
Complete 40 timed mixed-domain practice items and record accuracy by domain to establish a baseline.
Analyze every missed item for the underlying misconception rather than the surface error, and write a one-sentence correction for each.
Explain the difference between a hypothesis, a prediction, a theory, and a law using your own examples, and check the wording for precision.
Identify three places where your content knowledge limits your ability to evaluate student investigations, and target them for review.
Your checkpoint
A timed 40-item baseline score report with per-domain accuracy and a misconception-correction list.
Instructional Design and Assessment in Science
Design a 3-lesson sequence that builds toward a specific three-dimensional performance expectation, stating the phenomenon, the student sense-making, and the evidence of learning.
Write a 5-item assessment blueprint that matches item types to cognitive demand and includes at least one constructed-response and one data-analysis item.
Create a scoring rubric with 3 performance levels for a scientific explanation and test it against two sample student responses.
Plan how you would use formative evidence during the sequence to adjust instruction mid-unit.
Your checkpoint
A complete 3-lesson instructional sequence with a matching assessment blueprint and scored rubric.
Student Learning and Development in Science & Equity, Diversity, and Inclusive Science Practices
Describe three developmentally typical misconceptions for your grade band and explain the instructional move that surfaces and addresses each one.
Analyze a lesson for barriers to participation and revise it to include multiple means of representation, engagement, and expression.
Draft a plan for supporting multilingual learners and students with IEP or 504 accommodations during inquiry and lab work, naming specific scaffolds.
Explain how you would build a culturally responsive science example that connects content to students' communities without stereotyping.
Your checkpoint
A revised inclusive lesson plan annotated with the specific scaffolds added and the rationale for each.
Science and Society: Connections, Ethics, and Literacy & Professional Collaboration and Leadership in Science Education
Analyze two science-society case studies, such as a public-health or energy decision, and articulate the evidence, trade-offs, and ethical dimensions in each.
Write a short argument evaluating a media science claim for source quality, sample size, and whether the conclusion outruns the evidence.
Describe how you would lead a professional learning session or department collaboration on one instructional improvement, including the evidence you would gather.
Identify two ways to involve families and community partners in science learning and explain the expected benefit.
Your checkpoint
A case-study analysis and media-literacy critique, plus a one-page proposal for a collaborative professional learning session.
Reflective Practice and Continuous Professional Growth & Instructional Design and Assessment in Science
Review your week 1 and week 3 error logs and write a reflection identifying which misconceptions have closed and which persist.
Complete 40 timed practice items across all domains and compare accuracy to the week 3 baseline.
Revise your instructional sequence and rubric based on what the practice data reveal about your content and design gaps.
Draft a professional growth plan with two specific goals, evidence sources, and a timeline for the coming school year.
Your checkpoint
A reflection memo comparing baseline and week 7 accuracy, plus a revised sequence and a written growth plan.
Science Content Knowledge and Conceptual Understanding & Scientific Inquiry and Investigation & Instructional Design and Assessment in Science & Student Learning and Development in Science & Equity, Diversity, and Inclusive Science Practices & Science and Society: Connections, Ethics, and Literacy & Professional Collaboration and Leadership in Science Education & Reflective Practice and Continuous Professional Growth
Run two full-length timed simulations under exam conditions and score them against the domain weightings.
Re-teach your three weakest concepts aloud as if to a student, then verify your explanation against source material.
Assemble a portfolio of your best artifacts, one per domain, and write a two-sentence rationale for each.
Finalize a test-day plan covering timing strategy, constructed-response outlining, and rest before the exam.
Your checkpoint
Two scored full-length simulations, a domain-by-domain artifact portfolio, and a written test-day plan.
Milestones
Week 2: You can explain your two weakest content areas from memory and correctly apply the controlled-investigation framework to a new scenario without notes.
Week 4: Your 3-lesson sequence shows explicit alignment among phenomenon, performance expectation, assessment, and rubric, and a peer or mentor can follow it without asking clarifying questions.
Week 6: You can analyze an unfamiliar science-society case and a media claim, naming the evidence and ethical trade-offs, and you have a written collaboration proposal.
Week 8: Timed simulation accuracy has improved over your week 3 baseline in every domain, no domain falls below 70 percent, and every domain has at least one portfolio artifact with a rationale.