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About this exam

The OAE Physics (035) is a subject-matter assessment used in Ohio's educator-licensure process for candidates who want to teach physics. It is typically taken by people completing an teacher-preparation program, by candidates adding a physics endorsement to an existing license, and by out-of-state educators seeking Ohio licensure. The exam is delivered in English as multiple choice and samples the full breadth of introductory and secondary physics rather than a single course.

The content is organized into six domains: Nature of Science, Mechanics, Electricity and Magnetism, Waves and Optics, Thermodynamics and Energy, and Modern Physics. Mechanics and Electricity and Magnetism carry the most weight, so they deserve the largest share of study time, but the smaller domains are where well-prepared candidates often lose easy points through rusty definitions and units.

Preparation works best in three passes. First, review each domain against a solid algebra-based or calculus-based textbook and rebuild formula fluency, including units and limiting cases. Second, work quantitative problems under time pressure, since the exam rewards fast setup and estimation as much as exact computation. Third, practice explaining concepts in plain language, because many items test reasoning and experimental design rather than calculation. Confirm current registration, testing options, fees, and scoring information directly with the official evaluation body, which publishes the authoritative figures.

What you'll study

Common questions

About OAE Physics (035) preparation

What is the OAE Physics (035) exam used for?

It is a subject-matter test used in Ohio's licensure process for physics teachers. Passing it demonstrates content knowledge to the state and to preparation programs. Requirements vary by pathway, so check the official evaluation body's site for the exact role the test plays in your license or endorsement.

What is the test format?

It is a multiple-choice, computer-delivered exam in English. Items are standalone, so you will not rely on a shared stimulus packet. Expect a mix of conceptual questions, calculation problems, graph and data interpretation, and questions about experimental design and the nature of science.

How many questions are there, and how long is the test?

Question count and testing time are set and updated by the official evaluation body, so no fixed number should be assumed. Check its website for the current test framework and appointment length before you plan your pacing strategy. Practice under timed conditions using the published length.

How is the exam scored, and what score do I need?

Scores are reported on a scaled basis, and the passing standard is published by the official body rather than fixed in advance by test-takers. Look up the current passing score and score-report timeline on its site. Your score report typically includes domain-level performance, which is useful for targeting a retake.

How difficult is the exam?

Most candidates find it moderate but broad. The physics itself is standard introductory and secondary material; the challenge is recall across six domains and fast, accurate setup under time pressure. Candidates strong in mechanics but rusty in optics, modern physics, or thermodynamics are the most common casualties.

If I fail, can I retake it, and how soon?

Retakes are generally permitted, but waiting periods, registration steps, and fees are set by the official evaluation body and can change. Confirm the current retake policy on its website before scheduling. Use your domain-level score report to decide what to study rather than repeating the same preparation.

In what order should I study the domains?

Start with Mechanics and Electricity and Magnetism, which carry the most weight and underpin the rest. Then cover Waves and Optics and Thermodynamics and Energy, which reward formula fluency and graph reading. Finish with Modern Physics and Nature of Science, where short, definition-focused review yields quick gains.

What are the most common failure modes?

Weak unit and dimensional reasoning, misreading what a question asks, and slow algebra on multi-step problems. Others include neglecting the smaller domains and skipping experimental-design and nature-of-science content. Practicing estimation and checking limiting cases catches many of these errors before test day.

How should I prepare in the final weeks?

Shift from reading to timed practice. Work mixed problem sets across all six domains, review every miss for the underlying concept rather than the arithmetic, and rehearse formula recall with units. Confirm your appointment details, identification requirements, and testing options on the official site a week ahead.

Does this page or its author have any official connection to the exam?

No. This material is independent study content and is not affiliated with, endorsed by, or sponsored by the exam's owner or Ohio's licensing authorities. Always treat the official evaluation body's published framework, policies, and figures as authoritative over any third-party summary, including this one.