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NMAT Physics is one of the most challenging components of the NMAT Part II section. It tests not only your knowledge of fundamental physics concepts but also your ability to apply those concepts quickly and accurately under time pressure. Many examinees struggle not because physics is inherently difficult, but because their study approach is inefficient or misaligned with the NMAT’s unique structure.
This guide provides a comprehensive, NMAT-focused study strategy for Physics. It is designed to help you prioritize topics, develop problem-solving efficiency, avoid common pitfalls, and maximize your score—even if physics is not your strongest subject.
NMAT Physics questions are designed to assess analytical thinking rather than rote memorization. Unlike standard classroom exams, NMAT problems often combine multiple concepts into a single question and require quick estimation, logical elimination, or conceptual insight.
The Physics section typically covers high school-level topics, but the questions are framed in a way that emphasizes:
Understanding this mindset is crucial before you even begin studying.
Before building a study plan, you must know what to study. NMAT Physics generally includes the following core areas:
You do not need university-level depth, but you must master the fundamentals of each topic.
The biggest mistake NMAT takers make is memorizing formulas without understanding their meaning. NMAT Physics punishes formula-only learning.
When studying a topic, always ask:
For example, instead of memorizing the kinematic equations, understand how velocity, acceleration, and displacement are related graphically and physically.
Conceptual clarity allows you to:
Not all Physics topics are equally represented in NMAT. While coverage may vary, certain areas consistently appear and should be prioritized:
Allocate more study time to these topics, especially if they are your weak areas.
Lower-yield topics such as Modern Physics should still be reviewed, but they do not require excessive depth.
Unit analysis is one of the most powerful tools in NMAT Physics.
Many questions can be solved—or at least narrowed down—by checking units alone. NMAT often includes answer choices with incorrect dimensions to trap careless test-takers.
Practice the habit of:
This approach saves time and reduces calculation errors.
Time is a critical constraint in NMAT Physics. You must learn to solve problems efficiently.
Key techniques include:
For example, in projectile motion questions, symmetry can often eliminate the need for equations.
General physics problems are not enough. You must practice questions that match NMAT’s style.
NMAT-style questions are typically:
After each practice session, analyze not only incorrect answers but also correct ones. Ask yourself whether you solved the problem in the most efficient way.
NMAT frequently uses predictable traps, such as:
Make a personal list of mistakes you tend to repeat and review it regularly.
Physics is visual by nature. Drawing quick diagrams can clarify complex situations.
Use diagrams to:
Even a simple sketch can save valuable time and prevent conceptual errors.
Attempting to solve every question perfectly can be counterproductive.
A smarter strategy is:
NMAT rewards strategic thinking as much as knowledge.
Consistency is more important than intensity.
An effective NMAT Physics study plan should include:
Short, focused sessions are more effective than long, unfocused ones.
Do not avoid weak topics. Instead, isolate them.
For each weak area:
This structured approach prevents frustration and builds confidence.
Practicing under test-like conditions is essential.
At least two weeks before the exam, start doing:
This helps you adapt to pressure and refine your pacing strategy.
In the final days before NMAT, avoid learning entirely new topics.
Focus instead on:
A calm and focused mindset can significantly improve performance.
NMAT Physics is not about mastering advanced physics—it is about mastering fundamentals, strategy, and efficiency. With the right approach, even students who struggle with physics can achieve a competitive score.
By building strong conceptual foundations, practicing NMAT-style problems, avoiding common traps, and managing time effectively, you can turn Physics from a weakness into a scoring opportunity.
Approach your preparation with discipline, strategy, and confidence—and NMAT Physics will no longer feel overwhelming.
You do not need college-level Physics for the NMAT. The exam focuses on high school fundamentals such as motion, forces, energy, basic electricity, and heat. What matters most is how well you understand the core ideas and how quickly you can apply them to multiple-choice questions. If you can explain concepts like acceleration, net force, conservation of energy, and Ohm’s law in your own words, you are already on the right track. The NMAT tends to reward conceptual clarity, unit consistency, and practical reasoning more than memorizing dozens of formulas. Aim for strong mastery of the basics rather than trying to cover advanced topics in depth.
Start by rebuilding your foundations topic by topic. Choose a high-yield area such as kinematics or energy, review the core definitions, then practice a small set of easy questions until you feel comfortable. Gradually increase difficulty. Many students get stuck because they jump straight into timed drills without understanding why formulas work. If you are weak, slow down at the beginning and focus on concepts, diagrams, and unit analysis. Use an error log to track repeated mistakes. Also, avoid studying too many topics in one day. NMAT Physics becomes manageable when you improve steadily and consistently rather than cramming everything at once.
You should know key formulas, but memorization alone is not enough. A better approach is to learn formulas together with their meaning, units, and common use cases. For example, do not just memorize v = u + at—understand that it describes how velocity changes when acceleration is constant. Learn how each variable affects the outcome. When you understand a formula, you can recognize when it applies, avoid using the wrong equation, and eliminate answer choices faster. In addition, NMAT questions sometimes allow you to solve problems through reasoning or estimation without full calculations. Concept first, formula second is the most reliable strategy.
Unit analysis is extremely important and often underrated. It helps you confirm whether your setup is correct and can even solve some questions without heavy computation. Many NMAT items include distractors with incorrect units or wrong orders of magnitude. If you train yourself to check units early, you can catch mistakes quickly and improve accuracy. Practice converting units (for example, cm to m, km/h to m/s) and learn standard SI units for common quantities like force (newton), energy (joule), power (watt), and charge (coulomb). Dimensional thinking also helps when you forget a formula, because you can reconstruct relationships based on units.
Speed comes from familiarity and efficient habits, not rushing. First, master the standard question patterns (motion graphs, free-body diagrams, circuit basics, conservation laws). Second, practice short timed sets and review them carefully. Identify which steps slow you down: setting up equations, doing arithmetic, or interpreting the question. Then train that specific weakness. Use estimation when answer choices are far apart, and learn quick elimination techniques, such as checking signs, directions, or limiting cases. Also, develop a skipping strategy: answer easy questions first, flag difficult ones, and return later. This improves both speed and overall score.
Prioritization depends on your strengths, but most students benefit from focusing on high-yield fundamentals: kinematics and Newton’s laws, work-energy relationships, momentum basics, simple circuits (Ohm’s law, series/parallel resistors), and heat/thermodynamics concepts. These areas appear frequently in NMAT-style problem sets and build skills that transfer across topics. After that, cover waves/sound and light/optics, then review magnetism and modern physics at a basic level. Even if a topic appears less often, you still want enough familiarity to avoid losing easy points when it shows up.
For conceptual questions, slow down for a moment and focus on the physical situation rather than equations. Ask: What is changing? What is conserved? What forces or energy transfers are involved? Use diagrams, especially free-body diagrams, ray diagrams, or circuit sketches. Think about extreme cases (for example, what happens if mass becomes very large or friction becomes zero). This method often reveals the correct relationship without calculation. Also, pay attention to wording: “increases,” “decreases,” “constant,” and “net” are common triggers. Many conceptual traps happen when students ignore direction, confuse weight with mass, or assume linear relationships incorrectly.
The best approach is flexible. Some questions require straightforward computation, but many can be solved faster with logic, estimation, and elimination. If a problem looks long, check if the answer choices allow you to approximate. If you can reduce the work by recognizing proportional relationships, do that. However, do not force shortcuts when accuracy might suffer. Train both skills: practice doing clean calculations quickly, and practice recognizing when reasoning is enough. During the exam, choose the method that gives you the highest confidence in the shortest time.
Timed practice should increase as your foundation improves. In the early phase, spend more time learning concepts and doing untimed practice so you can focus on understanding. Once you feel comfortable with major topics, start doing timed sets two to four times per week. In the final two to three weeks before the exam, do more frequent timed sessions and at least a few full-length or section-level simulations. Always review after each timed set. The review is where improvement happens, because you identify patterns in your mistakes and fix them permanently.
In the final week, prioritize consolidation over expansion. Review your error log, revisit your weakest high-yield topics, and solve mixed sets to improve switching between concepts. Refresh key formulas with meaning and units, but avoid learning completely new material that could increase anxiety. Focus on pacing, smart skipping, and calm execution. Sleep and consistency matter because Physics performance drops when you are fatigued. A confident, well-practiced strategy in the final week can raise your score more than last-minute cramming.
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