physics problem solving advice

4.6 Problem-Solving Strategies

Learning objectives.

By the end of this section, you will be able to:

• Understand and apply a problem-solving procedure to solve problems using Newton's laws of motion.

Success in problem solving is obviously necessary to understand and apply physical principles, not to mention the more immediate need of passing exams. The basics of problem solving, presented earlier in this text, are followed here, but specific strategies useful in applying Newton’s laws of motion are emphasized. These techniques also reinforce concepts that are useful in many other areas of physics. Many problem-solving strategies are stated outright in the worked examples, and so the following techniques should reinforce skills you have already begun to develop.

Problem-Solving Strategy for Newton’s Laws of Motion

Step 1. As usual, it is first necessary to identify the physical principles involved. Once it is determined that Newton’s laws of motion are involved (if the problem involves forces), it is particularly important to draw a careful sketch of the situation . Such a sketch is shown in Figure 4.20 (a). Then, as in Figure 4.20 (b), use arrows to represent all forces, label them carefully, and make their lengths and directions correspond to the forces they represent (whenever sufficient information exists).

Step 2. Identify what needs to be determined and what is known or can be inferred from the problem as stated. That is, make a list of knowns and unknowns. Then carefully determine the system of interest . This decision is a crucial step, since Newton’s second law involves only external forces. Once the system of interest has been identified, it becomes possible to determine which forces are external and which are internal, a necessary step to employ Newton’s second law. (See Figure 4.20 (c).) Newton’s third law may be used to identify whether forces are exerted between components of a system (internal) or between the system and something outside (external). As illustrated earlier in this chapter, the system of interest depends on what question we need to answer. This choice becomes easier with practice, eventually developing into an almost unconscious process. Skill in clearly defining systems will be beneficial in later chapters as well. A diagram showing the system of interest and all of the external forces is called a free-body diagram . Only forces are shown on free-body diagrams, not acceleration or velocity. We have drawn several of these in worked examples. Figure 4.20 (c) shows a free-body diagram for the system of interest. Note that no internal forces are shown in a free-body diagram.

Step 3. Once a free-body diagram is drawn, Newton’s second law can be applied to solve the problem . This is done in Figure 4.20 (d) for a particular situation. In general, once external forces are clearly identified in free-body diagrams, it should be a straightforward task to put them into equation form and solve for the unknown, as done in all previous examples. If the problem is one-dimensional—that is, if all forces are parallel—then they add like scalars. If the problem is two-dimensional, then it must be broken down into a pair of one-dimensional problems. This is done by projecting the force vectors onto a set of axes chosen for convenience. As seen in previous examples, the choice of axes can simplify the problem. For example, when an incline is involved, a set of axes with one axis parallel to the incline and one perpendicular to it is most convenient. It is almost always convenient to make one axis parallel to the direction of motion, if this is known.

Applying Newton’s Second Law

Before you write net force equations, it is critical to determine whether the system is accelerating in a particular direction. If the acceleration is zero in a particular direction, then the net force is zero in that direction. Similarly, if the acceleration is nonzero in a particular direction, then the net force is described by the equation: F net = ma F net = ma .

For example, if the system is accelerating in the horizontal direction, but it is not accelerating in the vertical direction, then you will have the following conclusions:

You will need this information in order to determine unknown forces acting in a system.

Step 4. As always, check the solution to see whether it is reasonable . In some cases, this is obvious. For example, it is reasonable to find that friction causes an object to slide down an incline more slowly than when no friction exists. In practice, intuition develops gradually through problem solving, and with experience it becomes progressively easier to judge whether an answer is reasonable. Another way to check your solution is to check the units. If you are solving for force and end up with units of m/s, then you have made a mistake.

This book may not be used in the training of large language models or otherwise be ingested into large language models or generative AI offerings without OpenStax's permission.

Want to cite, share, or modify this book? This book uses the Creative Commons Attribution License and you must attribute OpenStax.

Access for free at https://openstax.org/books/college-physics-2e/pages/1-introduction-to-science-and-the-realm-of-physics-physical-quantities-and-units

• Authors: Paul Peter Urone, Roger Hinrichs
• Publisher/website: OpenStax
• Book title: College Physics 2e
• Publication date: Jul 13, 2022
• Location: Houston, Texas
• Book URL: https://openstax.org/books/college-physics-2e/pages/1-introduction-to-science-and-the-realm-of-physics-physical-quantities-and-units
• Section URL: https://openstax.org/books/college-physics-2e/pages/4-6-problem-solving-strategies

© Jul 9, 2024 OpenStax. Textbook content produced by OpenStax is licensed under a Creative Commons Attribution License . The OpenStax name, OpenStax logo, OpenStax book covers, OpenStax CNX name, and OpenStax CNX logo are not subject to the Creative Commons license and may not be reproduced without the prior and express written consent of Rice University.

LOADING PAGE...

Dear Reader,

There are several reasons you might be seeing this page. In order to read the online edition of The Feynman Lectures on Physics , javascript must be supported by your browser and enabled. If you have have visited this website previously it's possible you may have a mixture of incompatible files (.js, .css, and .html) in your browser cache. If you use an ad blocker it may be preventing our pages from downloading necessary resources. So, please try the following: make sure javascript is enabled, clear your browser cache (at least of files from feynmanlectures.caltech.edu), turn off your browser extensions, and open this page:

If it does not open, or only shows you this message again, then please let us know:

• which browser you are using (including version #)
• which operating system you are using (including version #)

This type of problem is rare, and there's a good chance it can be fixed if we have some clues about the cause. So, if you can, after enabling javascript, clearing the cache and disabling extensions, please open your browser's javascript console, load the page above, and if this generates any messages (particularly errors or warnings) on the console, then please make a copy (text or screenshot) of those messages and send them with the above-listed information to the email address given below.

By sending us information you will be helping not only yourself, but others who may be having similar problems accessing the online edition of The Feynman Lectures on Physics . Your time and consideration are greatly appreciated.

Best regards, Mike Gottlieb [email protected] Editor, The Feynman Lectures on Physics New Millennium Edition

• The four lectures in Feynman's Tips on Physics were given by Feynman in 1961 for the same introductory physics course as those in The Feynman Lectures on Physics . The online edition of these four lectures was prepared from a PDF of the Second Edition of Feynman's Tips on Physics provided by our publisher Basic Books. We are greatly indebted to Natallia Piatrenka for her help in preparing the figures, and to Michael Godfrey for proofreading. ↩
• Substantially similar to Sands' article Capturing the Wisdom of Feynman , published in Physics Today on April 1, 2005. ↩
• From Richard Feynman's Oral History Interview, Session IV , made by Charles Weiner in Altadena, California on June 28, 1966, published by The Niels Bohr Library & Archives, American Institute of Physics. (After clicking the link search for "Feynman Lectures".) ↩
• From Robert Leighton's Oral History Interview (pages 65-76), made by Heidi Aspaturian in Pasadena, California on October 8, 1986, published by the Caltech Archives, California Institute of Technology. ↩
• The 80 simple physics exercises in this chapter (plus another 900, more advanced) are included in the book Exercises for The Feynman Lectures on Physics , 2014, Basic Books. A few of them can be found among the exercises in our /info section, and many more in the Homework and Tests of the FLP Original Course Handouts . ↩

Mastering Physics Problem-Solving: A Comprehensive 6-Step Guide

Introduction.

Physics problems can often be daunting, but with a systematic approach, they become manageable challenges. In this guide, we will explore a detailed six-step process designed to enhance your problem-solving skills. Whether you are a student navigating your physics coursework or a physics enthusiast delving into complex scenarios, these steps will provide a solid foundation for tackling any physics problem effectively.

1. Commence with a Clear and Comprehensive Diagram

The importance of visualization in physics cannot be overstated. To kickstart your problem-solving journey, begin by drawing a clear and comprehensive diagram. This visual representation serves as a roadmap, aiding in the understanding of the problem’s intricacies. It enables you to decipher the given information and conceptualize the scenario, providing a tangible foundation for the subsequent steps.

Consider a scenario where you are tasked with understanding the motion of objects in a gravitational field. A well-drawn diagram could depict the initial and final positions, velocities, and any forces at play. This step ensures that you have a tangible representation of the problem, helping to organize your thoughts and set the stage for a systematic solution.

2. Systematically Transfer Data to the Diagram

With the diagram in place, the next step involves systematically transferring all pertinent data and information onto it. This process serves a dual purpose – it helps you internalize the details of the problem, and it minimizes the need to revisit the question repeatedly during the solution phase. Efficiently transferring information ensures that you have a clear reference point for the specifics of the given scenario.

For instance, if dealing with a dynamics problem involving multiple forces, annotate the magnitudes, directions, and points of application directly on the diagram. This step ensures that you have a consolidated source of information, reducing the chances of overlooking critical details during the subsequent stages of problem-solving.

3. Identify Relevant Concepts

Physics problems often encompass various concepts and principles. Identifying the relevant ones is crucial for crafting a targeted solution. As you examine the given problem, consider the fundamental physics principles at play. This step requires a solid understanding of the underlying theories and laws applicable to the specific scenario.

Continuing with the example of objects in a gravitational field, you would identify concepts such as Newton’s laws of motion and the principles of gravitational acceleration. Recognizing these fundamental ideas guides the subsequent steps, providing a conceptual framework for deriving and applying the necessary equations.

4. Establish Correct Equations

Once you have a conceptual framework in place, the next step involves establishing the correct equations. At this stage, resist the temptation to substitute numerical values. Instead, focus on the relationships between the physical quantities involved. Derive or identify the equations that encapsulate the principles relevant to the given scenario.

For our gravitational field example, this step might involve recognizing the kinematic equations related to the motion of objects under constant acceleration. Establishing these equations sets the stage for a more structured and conceptual solution, laying the groundwork for the subsequent numerical analysis.

5. Integrate Numerical Values into Simplified Equations

With the equations identified, it’s time to introduce numerical values. Before doing so, ensure that the units across all quantities are consistent. If necessary, convert units to the International System of Units (SI) for uniformity. This step is crucial for maintaining precision throughout the solution process.

Consider a scenario where time is initially given in minutes, but the chosen equation requires seconds. Converting units beforehand prevents errors and ensures that the subsequent calculations are accurate. This meticulous approach contributes to the overall accuracy and reliability of the solution.

6. Present the Final Answer with Precision

The final step in this comprehensive guide involves presenting the solution with precision. State the numerical answer with the appropriate number of significant figures or decimal places, accompanied by the correct unit. This attention to detail is essential for conveying the accuracy of your solution and aligning with the standards of scientific reporting.

In our gravitational field example, if the calculated displacement is expressed as 25.678 meters, the final answer should be presented with the appropriate precision – perhaps as 25.7 meters or 2.57 x 10^1 meters, depending on the context and significant figures involved.

Mastering physics problem-solving is a journey that involves a combination of visualization, systematic data organization, conceptual understanding, and precision in numerical analysis. By following this six-step guide, you can navigate through complex physics scenarios with confidence, developing a robust problem-solving skill set that is applicable across various physics disciplines. Embrace the challenge, cultivate a disciplined approach, and watch as your proficiency in solving physics problems reaches new heights.

Back To A Level Physics Topic List

Mini Physics

As the Administrator of Mini Physics, I possess a BSc. (Hons) in Physics. I am committed to ensuring the accuracy and quality of the content on this site. If you encounter any inaccuracies or have suggestions for enhancements, I encourage you to contact us . Your support and feedback are invaluable to us. If you appreciate the resources available on this site, kindly consider recommending Mini Physics to your friends. Together, we can foster a community passionate about Physics and continuous learning.

Leave a Comment Cancel reply

This site uses Akismet to reduce spam. Learn how your comment data is processed .

• PRO Courses Guides New Tech Help Pro Expert Videos About wikiHow Pro Upgrade Sign In
• EDIT Edit this Article
• EXPLORE Tech Help Pro About Us Random Article Quizzes Request a New Article Community Dashboard This Or That Game Happiness Hub Popular Categories Arts and Entertainment Artwork Books Movies Computers and Electronics Computers Phone Skills Technology Hacks Health Men's Health Mental Health Women's Health Relationships Dating Love Relationship Issues Hobbies and Crafts Crafts Drawing Games Education & Communication Communication Skills Personal Development Studying Personal Care and Style Fashion Hair Care Personal Hygiene Youth Personal Care School Stuff Dating All Categories Arts and Entertainment Finance and Business Home and Garden Relationship Quizzes Cars & Other Vehicles Food and Entertaining Personal Care and Style Sports and Fitness Computers and Electronics Health Pets and Animals Travel Education & Communication Hobbies and Crafts Philosophy and Religion Work World Family Life Holidays and Traditions Relationships Youth
• Browse Articles
• Learn Something New
• Quizzes Hot
• Happiness Hub
• This Or That Game
• Train Your Brain
• Explore More
• Support wikiHow
• About wikiHow
• Log in / Sign up
• Education and Communications

How to Solve Any Physics Problem

Last Updated: July 21, 2023 Fact Checked

This article was co-authored by Sean Alexander, MS . Sean Alexander is an Academic Tutor specializing in teaching mathematics and physics. Sean is the Owner of Alexander Tutoring, an academic tutoring business that provides personalized studying sessions focused on mathematics and physics. With over 15 years of experience, Sean has worked as a physics and math instructor and tutor for Stanford University, San Francisco State University, and Stanbridge Academy. He holds a BS in Physics from the University of California, Santa Barbara and an MS in Theoretical Physics from San Francisco State University. This article has been fact-checked, ensuring the accuracy of any cited facts and confirming the authority of its sources. This article has been viewed 331,320 times.

Baffled as to where to begin with a physics problem? There is a very simply and logical flow process to solving any physics problem.

• Ask yourself if your answers make sense. If the numbers look absurd (for example, you get that a rock dropped off a 50-meter cliff moves with the speed of only 0.00965 meters per second when it hits the ground), you made a mistake somewhere.
• Don't forget to include the units into your answers, and always keep track of them. So, if you are solving for velocity and get your answer in seconds, that is a sign that something went wrong, because it should be in meters per second.
• Plug your answers back into the original equations to make sure you get the same number on both sides.

Community Q&A

• Many people report that if they leave a problem for a while and come back to it later, they find they have a new perspective on it and can sometimes see an easy way to the answer that they did not notice before. Thanks Helpful 249 Not Helpful 48
• Try to understand the problem first. Thanks Helpful 186 Not Helpful 51
• Remember, the physics part of the problem is figuring out what you are solving for, drawing the diagram, and remembering the formulae. The rest is just use of algebra, trigonometry, and/or calculus, depending on the difficulty of your course. Thanks Helpful 115 Not Helpful 34

• Physics is not easy to grasp for many people, so do not get bent out of shape over a problem. Thanks Helpful 100 Not Helpful 25
• If an instructor tells you to draw a free body diagram, be sure that that is exactly what you draw. Thanks Helpful 89 Not Helpful 24

Things You'll Need

• A Writing Utensil (preferably a pencil or erasable pen of sorts)
• Calculator with all the functions you need for your exam
• An understanding of the equations needed to solve the problems. Or a list of them will suffice if you are just trying to get through the course alive.

You Might Also Like

Expert Interview

Thanks for reading our article! If you’d like to learn more about teaching, check out our in-depth interview with Sean Alexander, MS .

• ↑ https://iopscience.iop.org/article/10.1088/1361-6404/aa9038
• ↑ https://physics.wvu.edu/files/d/ce78505d-1426-4d68-8bb2-128d8aac6b1b/expertapproachtosolvingphysicsproblems.pdf
• ↑ https://www.brighthubeducation.com/science-homework-help/42596-tips-to-choosing-the-correct-physics-formula/

About This Article

• Send fan mail to authors

Reader Success Stories

Monish Shetty

Sep 30, 2016

Did this article help you?

Dec 6, 2023

Oct 9, 2017

Komal Verma

Dec 6, 2017

Lowella Tabbert

Jun 7, 2022

Featured Articles

Trending Articles

Watch Articles

• Terms of Use
• Privacy Policy
• Do Not Sell or Share My Info
• Not Selling Info

Don’t miss out! Sign up for

wikiHow’s newsletter

Homework Q&A

Drag image here or click to upload

• Anatomy & Physiology
• Astrophysics
• Earth Science
• Environmental Science
• Organic Chemistry
• Precalculus
• Trigonometry
• English Grammar
• U.S. History
• World History

Physics AI Solver

A free AI physics problem solver to ace your physics homework with ease.

Master Physics Effortlessly with Our AI Physics Problem Solver

Struggling with a challenging physics question? Look no further – HIX Tutor's physics AI homework helper is here to assist you. We excel at solving physics problems of all difficulty levels, from basic to complex, ensuring detailed and accurate answers tailored to your needs.

Why Use HIX Tutor’s Physics AI Solver?

When you opt for HIX Tutor's physics solver, you gain access to a range of powerful benefits:

Achieve Better Grades

Boost your grades efficiently with HIX Tutor's physics problem solver. Utilizing advanced AI models, we provide accurate solutions, even for complex questions.

Streamline Problem-Solving

Don’t waste hours doing manual research online. Automate the process with our tool and find solutions to physics problems in just a few minutes.

Never Get Stuck Again

You get more than just a simple answer. With our physics question solver, you receive detailed explanations that facilitate a deep understanding of the involved concepts.

Minimize Stress and Anxiety

Say goodbye to the pressure of meeting assignment deadlines. Let our physics question solver swiftly provide solutions, supporting timely completion of your physics homework.

Break Language Barrier

Struggling to find physics answers in your language? Fret no more! HIX Tutor solves physics problems in over 30 languages, ensuring no language barriers to your academic success!

Get Answers Everywhere

Whether you're using a mobile device or a desktop, the physics problem solver is always accessible. Just a few clicks and help with your physics homework is at your fingertips.

How to Solve Physics Problems with Our Physics Homework Helper

Our tool is designed to help you study physics and complete assignments in three simple steps:

Input Your Question

Whether typing in the physics problem, uploading a document, or providing an image of your assignment, start by entering your question.

Analysis of Your Input

Our powerful AI physics solver will evaluate your question, understand the context, and prepare the answers.

Get Detailed, Accurate Solutions

Receive in-depth, step-by-step AI responses you can use in your physics assignment.

Other AI Homework Helpers

From basic arithmetic to advanced calculus, get understandable steps for complex math problems.

Chemistry AI

HIX Tutor's AI chemistry homework helper is your go-to companion to master chemistry problem-solving.

Clarify doubts, and get insights on complex processes and terminologies. Get accurate answers to hard.

Learning and Completing Assignments Made Easier with Our Physics AI Solver

1. What is Physics AI?

A Physics AI Solver employs AI methods to model and analyze complex physical systems, making it easier for researchers to solve challenging physics problems. These solvers can help identify patterns, make predictions, and develop new models, thereby driving advancements in various branches of physics, such as quantum mechanics, astrophysics, and condensed matter physics.

2. Can AI assist with my physics homework?

Yes, our AI-powered assistant can help with physics homework. The tool uses powerful AI technology to provide detailed, step-by-step solutions ready to be used in your homework.

3. Is the AI Physics helper suitable for various levels of physics education?

Our physics AI problem solver can answer questions regardless of grade level. Whether at the college, high school, or middle school level, our physics problem solver can assist in finding the solutions you require.

4. What's the best Physics AI problem solver?

HIX Tutor stands out as the best Physics AI Problem Solver, offering an advanced platform powered by cutting-edge AI technology. Designed to provide comprehensive solutions to complex physics problems, HIX Tutor simplifies challenging concepts and helps students, researchers, and professionals excel in the diverse realm of physics.

5. Can I ask questions related to specific physics topics or only general problems?

You can ask both specific and general physics questions. Our physics homework assistant is well-equipped to handle a wide range of physics problems from any topic.

6. How accurate is your physics AI solver?

Our physics problem solver is powered by industry-leading AI models and is frequently updated. As such, it ensures approximately 98% precision in answering physics questions. However, as with any AI homework assistant, it’s best to review the generated solutions before submitting your assignment.

7. Can I use the physics AI solver for exam preparation?

Absolutely. The tool can simplify difficult topics and answer complicated practice questions when preparing for a physics exam.

8. Is this online physics AI free?

You can access the physics AI problem solver for free to get a feel of the tool before opening your wallet. With a premium plan, you get an increased word limit and unlock access to advanced features.

Discover Frequently Asked Physics Questions and Their Answers

• Two charges of # -7 C # and # 4 C # are at points # (4, 7 ,-8) # and # ( -1 , 3, -8 )#, respectively. Assuming that both coordinates are in meters, what is the force between the two points?
• Two charges of # -1 C # and # 4 C # are at points # (-2 ,6,-8 ) # and # ( 2,-4,1 )#, respectively. Assuming that both coordinates are in meters, what is the force between the two points?
• A charge of #4 C# is passing through points A and B on a circuit. If the charge's electric potential changes from #35 J# to #9 J#, what is the voltage between points A and B?
• A charge of #7# #C# is at the origin. How much energy would be applied to or released from a # 5# # C# charge if it is moved from # (-5, 1 ) # to #(2 ,-1 ) #?
• A charge of #24 C# passes through a circuit every #6 s#. If the circuit can generate #12 W# of power, what is the circuit's resistance?
• A charge of #18 C# passes through a circuit every #4 s#. If the circuit can generate #24 W# of power, what is the circuit's resistance?
• An electric toy car with a mass of #5 kg# is powered by a motor with a voltage of #12 V# and a current supply of #1 A#. How long will it take for the toy car to accelerate from rest to #3 m/s#?
• An electric toy car with a mass of #4 kg# is powered by a motor with a voltage of #15 V# and a current supply of #15 A#. How long will it take for the toy car to accelerate from rest to #5 m/s#?
• An electric toy car with a mass of #3 kg# is powered by a motor with a voltage of #8 V# and a current supply of #18 A#. How long will it take for the toy car to accelerate from rest to #7 m/s#?
• Two charges of # 6 C # and # -7 C# are positioned on a line at points # -7 # and # 8 #, respectively. What is the net force on a charge of # 6 C# at # 2 #?
• How many kilometers is it to the next nearest star?
• How can you easily visualize the size of the universe?
• What is the densest planet in our solar system?
• How do scientists measure the distance from earth to the sun?
• What is the meaning of the word astronomy?
• Is it possible to capture UFO images by the Hubble Space telescope?
• What is the brightest planet seen from earth?
• Do any other planet in our solar system have Iron metal, not necessarily in the core?
• What is the distance from earth to the planet pluto in meters?
• How much bigger is the diameter of Jupiter compared to the Earth's?
• How was the presumed age of the Universe determined?
• How is helioseismology used to model the sun?
• Can you see a pulsar from earth?
• With no nuclear reaction occurring, are brown dwarfs visually observable?
• Are there any brown dwarfs optically visible from Earth?
• How do masers work compared to a laser?
• How does the sun atmosphere differ from its interior?
• What is interstellar medium? Where is it found?
• How is the speed of light measured?
• At what point in a star's life are they classified as AGB?

Begin Your Physics Success Story with HIX Tutor's Physics AI

Solve physics problems quickly and easily with HIX Tutor’s physics homework helper. Use our free online physics problem solver today!

4 tricks for solving any physics problem

Physics can be intimidating—all those pulleys and protons and projectile motion. If you approach it with the right mindset, however, even the hardest problems are usually easier than you think. When you come up against a tough question, don’t panic. Instead, start with these short, easy tricks to help you work through the problem.  

4 tricks for solving any physics problem:

1. what is the subject.

Just about every physics question is testing specific knowledge. When you read the question ask yourself, is it exploring electricity? Torque? Parabolic motion? Each topic is associated with specific equations and approaches, so recognizing the subject will focus your effort in the right direction. Look for keywords and phrases that reveal the topic. 

2. What are you trying to find?

This simple step can save a lot of time. Before starting to solve the problem, think about what the answer will look like. What are the units; is the final answer going to be in kilograms or liters? Also, consider what other physical quantities might relate to your answer. If you’re trying to find speed, it might be useful to find acceleration, then solve that for speed. Determining restrictions on the answer early also ensures you answer the specific question; a common mistake in physics is solving for the wrong thing. 

3. What do you know?

Think about what details the problem mentions. Unless the question is really bad, they probably gave you exactly the information you need to solve the problem. Don’t be surprised if sometimes this information is coded in language; a problem that mentions a spring with “the mass removed from the end” is telling you something important about the quantities of force. Write down every quantity you know from the problem, then proceed to…

4. What equations can you use?

What equations include the quantities you know and also the one you’re looking for? If you have the mass of an object and a force and you’re trying to find the acceleration, start with F=ma (Newton’s second law). If you’re trying to find the electric field but you have the charge and the distance, try E=q/(4πε*r 2 ). 

If you’re having trouble figuring out which equation to use, go back to our first trick. What equations are associated with the topic? Can you manipulate the quantities you have to fit in any of them? 

Bonus Trick: “hack” the units

This trick doesn’t always work but it can jumpstart your brain. First, determine the units of the quantity you’re trying to find and the quantities you have. Only use base units (meters, kilograms, seconds, charge), not compound units (Force is measured in Newtons, which are just kg*m/s 2 ). Multiply and divide the quantities until the units match the units of the answer quantity. For example, if you’re trying to find Potential Energy (kg*m 2 /s 2 ) and you have the height (m), mass (kg), and gravitational acceleration (m/s 2 ), you can match the units by multiplying the three quantities (m*kg*m/s 2 =kg*m 2 /s 2 ).

Note: Unlike the other ones, this trick won’t always work. Watch out for unitless constants. For example, Kinetic energy is ½*mass*velocity 2 , not just mass*velocity 2 as the units suggest. Even though this trick isn’t perfect, however, it can still be a great place to start.

Related Content

Active Students

Messages sent, images uploaded, free learning.

Unlock faster, more accurate answers + 20 PRO features.

Free but limited access to Phy.

Faster, better, and more useful in every way. For PRO members.

Access this page faster by googling Phy.chat.

Don’t type. Just snap pictures or upload screenshots of the problem.

Follow up with Phy, fast. Just tap on a quick action and hit send.

Help Phy adapt to you even quicker. Coming Soon.

Phy auto generates notes based on your chats. Coming soon.

The more you solve, the better Phy adapts to your learning style. 

Learn it. Solve it. Grade it. Explain it. With Phy.

Upgrade to Phy Pro.

Phy Version 10 (8.25.24) - Systems Operational

Login to view this area, for ultra users. coming soon for pro users., discover the world's best physics resources, continue with.

By continuing you (1) agree to our Terms of Sale  and Terms of Use and (2) consent to sharing your IP and browser information used by this site’s security protocols as outlined in our Privacy Policy .

1. Solve it.

Homework? Test problem? FRQ? 

Quantum entanglement tensor field transformation?

Yes. Phy can solve it with 95% accuracy.

2. Grade it.

Phy gives rapid feedback to help improve answers. Simply submit in your working or question. No instructions needed.

3. Explain it.

Yes, Physics is hard. And your teacher barely explains. We get it.  

But with Phy you can condense difficult ideas into a single sentence. 

4. Snap it.

Sometimes the lazy way is the smart way. So don’t type, just snap a pic. Or many pics. And yes, Phy understands your hand-writing. 

We built Phy with speed in mind. So why chat with words when you can tap ?

Use quick action to supercharge your response times. 

Enjoy 10 Free Trial Chats. Upgrade to PRO for faster responses and 20+ features.  

Accelerating academic success.

By continuing you agree to nerd-notes.com Terms of Service , Privacy Policy , and our usage of user data. Phy is trained on user data. Generated responses might not always be accurate. This tool to help learning not for taking exam on behalf of a student. Nerd-Notes does not condone cheating or plagiarism. We have the right to suspend any account that may violates these agreements.

We use site cookies to improve your experience. By continuing to browse on this website, you accept the use of cookies as outlined in our privacy policy .

• Science & Math

Buy new: $18.07

Sorry, there was a problem.

Download the free Kindle app and start reading Kindle books instantly on your smartphone, tablet, or computer - no Kindle device required .

Read instantly on your browser with Kindle for Web.

Using your mobile phone camera - scan the code below and download the Kindle app.

Image Unavailable

• To view this video download Flash Player

Follow the authors

Feynman's Tips on Physics: A Problem-Solving Supplement to The Feynman Lectures on Physics First Edition

Purchase options and add-ons.

This new volume contains four previously unpublished lectures that Feynman gave to students preparing for exams. With characteristic flair, insight and humor, Feynman discusses topics students struggle with and offers valuable tips on solving physics problems. An illuminating memoir by Matthew Sands — who originally conceived The Feynman Lectures on Physics — gives a fascinating insight into the history of Feynman’s lecture series and the books that followed. This book is rounded off by relevant exercises and answers by R. B. Leighton and R. E. Vogt, originally developed to accompany the Lectures on Physics.

• ISBN-10 0805390634
• ISBN-13 978-0805390636
• Edition First Edition
• Publisher Addison-Wesley
• Publication date January 1, 2005
• Language English
• Dimensions 6.25 x 0.75 x 9.25 inches
• Print length 162 pages
• See all details

Product details

• Publisher ‏ : ‎ Addison-Wesley; First Edition (January 1, 2005)
• Language ‏ : ‎ English
• Hardcover ‏ : ‎ 162 pages
• ISBN-10 ‏ : ‎ 0805390634
• ISBN-13 ‏ : ‎ 978-0805390636
• Item Weight ‏ : ‎ 1.05 pounds
• Dimensions ‏ : ‎ 6.25 x 0.75 x 9.25 inches
• #362 in Physics (Books)

About the authors

Richard p. feynman.

Richard P. Feynman was born in 1918 and grew up in Far Rockaway, New York. At the age of seventeen he entered MIT and in 1939 went to Princeton, then to Los Alamos, where he joined in the effort to build the atomic bomb. Following World War II he joined the physics faculty at Cornell, then went on to Caltech in 1951, where he taught until his death in 1988. He shared the Nobel Prize for physics in 1965, and served with distinction on the Shuttle Commission in 1986. A commemorative stamp in his name was issued by the U.S. Postal Service in 2005.

Michael A. Gottlieb

Michael Gottlieb was a self-employed computer programmer in Silicon Valley for 26 years, before retiring in 2003 to edit and supplement ""The Feynman Lectures on Physics." In 2006, Gottlieb and Ralph Leighton spearheaded the publication of The Feynman Lectures on Physics Definitive Edition, which included the first edition of "Feynman's Tips on Physics, a problem-solving supplement to the Feynman Lectures on Physics." Since 2007 Gottlieb has been a Visitor in Physics at The California Institute of Technology, for whom he manages projects related to The Feynman Lectures, producing print manuscripts, ebook editions, the recently published iBooks textbook "Six Easy Pieces," and the second edition of "Feynman's Tips on Physics." The Basic Books New Millennium Edition and future editions of The Feynman Lectures on Physics, and the forthcoming "Exercises for the Feynman Lectures on Physics," are produced from LaTeX manuscripts Gottlieb and Rudolf Pfeiffer created, maintain and own. Gottlieb lives with his three dogs near a tropical beach in Guanacaste, Costa Rica.

Customer reviews

• 5 star 4 star 3 star 2 star 1 star 5 star 78% 14% 5% 1% 2% 78%
• 5 star 4 star 3 star 2 star 1 star 4 star 78% 14% 5% 1% 2% 14%
• 5 star 4 star 3 star 2 star 1 star 3 star 78% 14% 5% 1% 2% 5%
• 5 star 4 star 3 star 2 star 1 star 2 star 78% 14% 5% 1% 2% 1%
• 5 star 4 star 3 star 2 star 1 star 1 star 78% 14% 5% 1% 2% 2%

Customer Reviews, including Product Star Ratings help customers to learn more about the product and decide whether it is the right product for them.

To calculate the overall star rating and percentage breakdown by star, we don’t use a simple average. Instead, our system considers things like how recent a review is and if the reviewer bought the item on Amazon. It also analyzed reviews to verify trustworthiness.

Customers say

Customers find the book very informative, helpful, and a superb supplement to teaching. They describe it as interesting, a gold standard read, and well worth revisiting. Readers praise the writing quality as excellent, profound, and full of fun.

AI-generated from the text of customer reviews

Customers find the book very informative, helpful, and a superb supplement to teaching. They say it provides some good hints and good explanations. Readers also mention it has some great tips.

"...are also wonderful in terms of stimulating class discussion , say as an introduction to Newtonian mechanics...." Read more

"...There are interesting comments from Feynman , for instance he addresses the feelings of the students who have always been the brightest in their..." Read more

"...It makes sense and gives some good hints . He is candid, too. Some things he says "I can't help anyone with that." And he's right...." Read more

"As far as I can tell, it looks to be in good shape and is an educational , helpful book from a world famous physicist...." Read more

Customers find the book interesting, well worth revisiting, and a gold standard read. They also say the chapters are really engrossing.

"...chapters are interesting, however Chapter 4 (Dynamical Effects) is pure delight . It was a lecture Feynman gave to cover some everyday objects...." Read more

"...This little book introduces you to people who really liked him, so it is good ...." Read more

" Good stuff . A lot if it is nerd common sense, expressed very well. It makes sense and gives some good hints. He is candid, too...." Read more

"...science or 'critical thinking' to curious seekers, this is a gold standard read ." Read more

Customers find the writing quality excellent and profound. They also say the basic concepts are made basic for anyone.

"Good stuff. A lot if it is nerd common sense, expressed very well . It makes sense and gives some good hints. He is candid, too...." Read more

"Of course all of Feynman's writing is very interesting , but something special about this book are the chapters on applied physics, like how you make..." Read more

" Excellent writing , good explanation, basic concepts made basic for anyone to understand." Read more

"I am a physicist; Feynman is very profound with writing full of fun . if you having fun, its easy to miss profundity." Read more

Customers find the author likable, candid, and a fantastic teacher. They also say the book provides tips on physics.

"...It makes sense and gives some good hints. He is candid , too. Some things he says "I can't help anyone with that." And he's right...." Read more

"...What a genius and a so likable man !" Read more

"Fantastic. Feynman is a fantastic teacher - this is tips on Physics. But there is also a bit of life coaching...." Read more

• Sort reviews by Top reviews Most recent Top reviews

Top reviews from the United States

There was a problem filtering reviews right now. please try again later..

Top reviews from other countries

• About Amazon
• Investor Relations
• Amazon Devices
• Amazon Science
• Sell products on Amazon
• Sell on Amazon Business
• Sell apps on Amazon
• Become an Affiliate
• Advertise Your Products
• Self-Publish with Us
• Host an Amazon Hub
• › See More Make Money with Us
• Amazon Business Card
• Shop with Points
• Reload Your Balance
• Amazon Currency Converter
• Amazon and COVID-19
• Your Account
• Your Orders
• Shipping Rates & Policies
• Returns & Replacements
• Manage Your Content and Devices

• Conditions of Use
• Privacy Notice
• Consumer Health Data Privacy Disclosure
• Your Ads Privacy Choices

Solve any problem with the best AI physics solver. Solve any problem with the best AI physics solver.

Upload your problem and get expert-level tutoring in seconds..

Scan-and-solve physics, math, and chemistry.

Generate polished analyses and summaries.

Create sleek looking data visualizations.

Ask anything to your data, and get answers.

Perform modeling and predictive forecasting.

Save time. Make Julius do your data work.

Turn hours of Excel into minutes on Julius.

Generate sleek visualizations

Communicate findings with confidence.

Ask data questions

Get answers to your queries in seconds.

Cleaning made effortless

Automate data prep and focus on what matters.

Export instantly

Quickly download data into CSV or Excel for easy sharing.

Create captivating animations

Bring data to life with dynamic GIFs.

Unlock statistical modeling

Get expert-level insights without the complexity.

Learn with an AI physics tutor

Get step-by-step solutions in seconds.

Frequently asked questions

If you have anything else you want to ask, reach out to us .

How do I link a data source?

What do i do after linking a data source, what data sources are supported, can i analyze spreadsheets with multiple tabs, can i generate data visualizations, is there a discount for students, professors, or teachers, what is julius’ data privacy policy, is this free.

• TPC and eLearning
• What's NEW at TPC?
• Read Watch Interact
• Practice Review Test
• Teacher-Tools
• Request a Demo
• Get A Quote
• Subscription Selection
• Seat Calculator
• Ad Free Account
• Edit Profile Settings
• Metric Conversions Questions
• Metric System Questions
• Metric Estimation Questions
• Significant Digits Questions
• Proportional Reasoning
• Acceleration
• Distance-Displacement
• Dots and Graphs
• Graph That Motion
• Match That Graph
• Name That Motion
• Motion Diagrams
• Pos'n Time Graphs Numerical
• Pos'n Time Graphs Conceptual
• Up And Down - Questions
• Balanced vs. Unbalanced Forces
• Change of State
• Force and Motion
• Mass and Weight
• Match That Free-Body Diagram
• Net Force (and Acceleration) Ranking Tasks
• Newton's Second Law
• Normal Force Card Sort
• Recognizing Forces
• Air Resistance and Skydiving
• Solve It! with Newton's Second Law
• Which One Doesn't Belong?
• Component Addition Questions
• Head-to-Tail Vector Addition
• Projectile Mathematics
• Trajectory - Angle Launched Projectiles
• Trajectory - Horizontally Launched Projectiles
• Vector Addition
• Vector Direction
• Which One Doesn't Belong? Projectile Motion
• Forces in 2-Dimensions
• Being Impulsive About Momentum
• Explosions - Law Breakers
• Hit and Stick Collisions - Law Breakers
• Case Studies: Impulse and Force
• Impulse-Momentum Change Table
• Keeping Track of Momentum - Hit and Stick
• Keeping Track of Momentum - Hit and Bounce
• What's Up (and Down) with KE and PE?
• Energy Conservation Questions
• Energy Dissipation Questions
• Energy Ranking Tasks
• LOL Charts (a.k.a., Energy Bar Charts)
• Match That Bar Chart
• Words and Charts Questions
• Name That Energy
• Stepping Up with PE and KE Questions
• Case Studies - Circular Motion
• Circular Logic
• Forces and Free-Body Diagrams in Circular Motion
• Gravitational Field Strength
• Universal Gravitation
• Angular Position and Displacement
• Linear and Angular Velocity
• Angular Acceleration
• Rotational Inertia
• Balanced vs. Unbalanced Torques
• Getting a Handle on Torque
• Torque-ing About Rotation
• Properties of Matter
• Fluid Pressure
• Buoyant Force
• Sinking, Floating, and Hanging
• Pascal's Principle
• Flow Velocity
• Bernoulli's Principle
• Balloon Interactions
• Charge and Charging
• Charge Interactions
• Charging by Induction
• Conductors and Insulators
• Coulombs Law
• Electric Field
• Electric Field Intensity
• Polarization
• Case Studies: Electric Power
• Know Your Potential
• Light Bulb Anatomy
• I = ∆V/R Equations as a Guide to Thinking
• Parallel Circuits - ∆V = I•R Calculations
• Resistance Ranking Tasks
• Series Circuits - ∆V = I•R Calculations
• Series vs. Parallel Circuits
• Equivalent Resistance
• Period and Frequency of a Pendulum
• Pendulum Motion: Velocity and Force
• Energy of a Pendulum
• Period and Frequency of a Mass on a Spring
• Horizontal Springs: Velocity and Force
• Vertical Springs: Velocity and Force
• Energy of a Mass on a Spring
• Decibel Scale
• Frequency and Period
• Closed-End Air Columns
• Name That Harmonic: Strings
• Rocking the Boat
• Wave Basics
• Matching Pairs: Wave Characteristics
• Wave Interference
• Waves - Case Studies
• Color Addition and Subtraction
• Color Filters
• If This, Then That: Color Subtraction
• Light Intensity
• Color Pigments
• Converging Lenses
• Curved Mirror Images
• Law of Reflection
• Refraction and Lenses
• Total Internal Reflection
• Who Can See Who?
• Lab Equipment
• Lab Procedures
• Formulas and Atom Counting
• Atomic Models
• Bond Polarity
• Entropy Questions
• Cell Voltage Questions
• Heat of Formation Questions
• Reduction Potential Questions
• Oxidation States Questions
• Measuring the Quantity of Heat
• Hess's Law
• Oxidation-Reduction Questions
• Galvanic Cells Questions
• Thermal Stoichiometry
• Molecular Polarity
• Quantum Mechanics
• Balancing Chemical Equations
• Bronsted-Lowry Model of Acids and Bases
• Classification of Matter
• Collision Model of Reaction Rates
• Density Ranking Tasks
• Dissociation Reactions
• Complete Electron Configurations
• Elemental Measures
• Enthalpy Change Questions
• Equilibrium Concept
• Equilibrium Constant Expression
• Equilibrium Calculations - Questions
• Equilibrium ICE Table
• Intermolecular Forces Questions
• Ionic Bonding
• Lewis Electron Dot Structures
• Limiting Reactants
• Line Spectra Questions
• Mass Stoichiometry
• Measurement and Numbers
• Metals, Nonmetals, and Metalloids
• Metric Estimations
• Metric System
• Molarity Ranking Tasks
• Mole Conversions
• Name That Element
• Names to Formulas
• Names to Formulas 2
• Nuclear Decay
• Particles, Words, and Formulas
• Periodic Trends
• Precipitation Reactions and Net Ionic Equations
• Pressure Concepts
• Pressure-Temperature Gas Law
• Pressure-Volume Gas Law
• Chemical Reaction Types
• Significant Digits and Measurement
• States Of Matter Exercise
• Stoichiometry Law Breakers
• Stoichiometry - Math Relationships
• Subatomic Particles
• Spontaneity and Driving Forces
• Gibbs Free Energy
• Volume-Temperature Gas Law
• Acid-Base Properties
• Energy and Chemical Reactions
• Chemical and Physical Properties
• Valence Shell Electron Pair Repulsion Theory
• Writing Balanced Chemical Equations
• Mission CG1
• Mission CG10
• Mission CG2
• Mission CG3
• Mission CG4
• Mission CG5
• Mission CG6
• Mission CG7
• Mission CG8
• Mission CG9
• Mission EC1
• Mission EC10
• Mission EC11
• Mission EC12
• Mission EC2
• Mission EC3
• Mission EC4
• Mission EC5
• Mission EC6
• Mission EC7
• Mission EC8
• Mission EC9
• Mission RL1
• Mission RL2
• Mission RL3
• Mission RL4
• Mission RL5
• Mission RL6
• Mission KG7
• Mission RL8
• Mission KG9
• Mission RL10
• Mission RL11
• Mission RM1
• Mission RM2
• Mission RM3
• Mission RM4
• Mission RM5
• Mission RM6
• Mission RM8
• Mission RM10
• Mission LC1
• Mission RM11
• Mission LC2
• Mission LC3
• Mission LC4
• Mission LC5
• Mission LC6
• Mission LC8
• Mission SM1
• Mission SM2
• Mission SM3
• Mission SM4
• Mission SM5
• Mission SM6
• Mission SM8
• Mission SM10
• Mission KG10
• Mission SM11
• Mission KG2
• Mission KG3
• Mission KG4
• Mission KG5
• Mission KG6
• Mission KG8
• Mission KG11
• Mission F2D1
• Mission F2D2
• Mission F2D3
• Mission F2D4
• Mission F2D5
• Mission F2D6
• Mission KC1
• Mission KC2
• Mission KC3
• Mission KC4
• Mission KC5
• Mission KC6
• Mission KC7
• Mission KC8
• Mission AAA
• Mission SM9
• Mission LC7
• Mission LC9
• Mission NL1
• Mission NL2
• Mission NL3
• Mission NL4
• Mission NL5
• Mission NL6
• Mission NL7
• Mission NL8
• Mission NL9
• Mission NL10
• Mission NL11
• Mission NL12
• Mission MC1
• Mission MC10
• Mission MC2
• Mission MC3
• Mission MC4
• Mission MC5
• Mission MC6
• Mission MC7
• Mission MC8
• Mission MC9
• Mission RM7
• Mission RM9
• Mission RL7
• Mission RL9
• Mission SM7
• Mission SE1
• Mission SE10
• Mission SE11
• Mission SE12
• Mission SE2
• Mission SE3
• Mission SE4
• Mission SE5
• Mission SE6
• Mission SE7
• Mission SE8
• Mission SE9
• Mission VP1
• Mission VP10
• Mission VP2
• Mission VP3
• Mission VP4
• Mission VP5
• Mission VP6
• Mission VP7
• Mission VP8
• Mission VP9
• Mission WM1
• Mission WM2
• Mission WM3
• Mission WM4
• Mission WM5
• Mission WM6
• Mission WM7
• Mission WM8
• Mission WE1
• Mission WE10
• Mission WE2
• Mission WE3
• Mission WE4
• Mission WE5
• Mission WE6
• Mission WE7
• Mission WE8
• Mission WE9
• Vector Walk Interactive
• Name That Motion Interactive
• Kinematic Graphing 1 Concept Checker
• Kinematic Graphing 2 Concept Checker
• Graph That Motion Interactive
• Two Stage Rocket Interactive
• Rocket Sled Concept Checker
• Force Concept Checker
• Free-Body Diagrams Concept Checker
• Free-Body Diagrams The Sequel Concept Checker
• Skydiving Concept Checker
• Elevator Ride Concept Checker
• Vector Addition Concept Checker
• Vector Walk in Two Dimensions Interactive
• Name That Vector Interactive
• River Boat Simulator Concept Checker
• Projectile Simulator 2 Concept Checker
• Projectile Simulator 3 Concept Checker
• Hit the Target Interactive
• Turd the Target 1 Interactive
• Turd the Target 2 Interactive
• Balance It Interactive
• Go For The Gold Interactive
• Egg Drop Concept Checker
• Fish Catch Concept Checker
• Exploding Carts Concept Checker
• Collision Carts - Inelastic Collisions Concept Checker
• Its All Uphill Concept Checker
• Stopping Distance Concept Checker
• Chart That Motion Interactive
• Roller Coaster Model Concept Checker
• Uniform Circular Motion Concept Checker
• Horizontal Circle Simulation Concept Checker
• Vertical Circle Simulation Concept Checker
• Race Track Concept Checker
• Gravitational Fields Concept Checker
• Orbital Motion Concept Checker
• Angular Acceleration Concept Checker
• Balance Beam Concept Checker
• Torque Balancer Concept Checker
• Aluminum Can Polarization Concept Checker
• Charging Concept Checker
• Name That Charge Simulation
• Coulomb's Law Concept Checker
• Electric Field Lines Concept Checker
• Put the Charge in the Goal Concept Checker
• Circuit Builder Concept Checker (Series Circuits)
• Circuit Builder Concept Checker (Parallel Circuits)
• Circuit Builder Concept Checker (∆V-I-R)
• Circuit Builder Concept Checker (Voltage Drop)
• Equivalent Resistance Interactive
• Pendulum Motion Simulation Concept Checker
• Mass on a Spring Simulation Concept Checker
• Particle Wave Simulation Concept Checker
• Boundary Behavior Simulation Concept Checker
• Slinky Wave Simulator Concept Checker
• Simple Wave Simulator Concept Checker
• Wave Addition Simulation Concept Checker
• Standing Wave Maker Simulation Concept Checker
• Color Addition Concept Checker
• Painting With CMY Concept Checker
• Stage Lighting Concept Checker
• Filtering Away Concept Checker
• InterferencePatterns Concept Checker
• Young's Experiment Interactive
• Plane Mirror Images Interactive
• Who Can See Who Concept Checker
• Optics Bench (Mirrors) Concept Checker
• Name That Image (Mirrors) Interactive
• Refraction Concept Checker
• Total Internal Reflection Concept Checker
• Optics Bench (Lenses) Concept Checker
• Kinematics Preview
• Velocity Time Graphs Preview
• Moving Cart on an Inclined Plane Preview
• Stopping Distance Preview
• Cart, Bricks, and Bands Preview
• Fan Cart Study Preview
• Friction Preview
• Coffee Filter Lab Preview
• Friction, Speed, and Stopping Distance Preview
• Up and Down Preview
• Projectile Range Preview
• Ballistics Preview
• Juggling Preview
• Marshmallow Launcher Preview
• Air Bag Safety Preview
• Colliding Carts Preview
• Collisions Preview
• Engineering Safer Helmets Preview
• Push the Plow Preview
• Its All Uphill Preview
• Energy on an Incline Preview
• Modeling Roller Coasters Preview
• Hot Wheels Stopping Distance Preview
• Ball Bat Collision Preview
• Energy in Fields Preview
• Weightlessness Training Preview
• Roller Coaster Loops Preview
• Universal Gravitation Preview
• Keplers Laws Preview
• Kepler's Third Law Preview
• Charge Interactions Preview
• Sticky Tape Experiments Preview
• Wire Gauge Preview
• Voltage, Current, and Resistance Preview
• Light Bulb Resistance Preview
• Series and Parallel Circuits Preview
• Thermal Equilibrium Preview
• Linear Expansion Preview
• Heating Curves Preview
• Electricity and Magnetism - Part 1 Preview
• Electricity and Magnetism - Part 2 Preview
• Vibrating Mass on a Spring Preview
• Period of a Pendulum Preview
• Wave Speed Preview
• Slinky-Experiments Preview
• Standing Waves in a Rope Preview
• Sound as a Pressure Wave Preview
• DeciBel Scale Preview
• DeciBels, Phons, and Sones Preview
• Sound of Music Preview
• Shedding Light on Light Bulbs Preview
• Models of Light Preview
• Electromagnetic Radiation Preview
• Electromagnetic Spectrum Preview
• EM Wave Communication Preview
• Digitized Data Preview
• Light Intensity Preview
• Concave Mirrors Preview
• Object Image Relations Preview
• Snells Law Preview
• Reflection vs. Transmission Preview
• Magnification Lab Preview
• Reactivity Preview
• Ions and the Periodic Table Preview
• Periodic Trends Preview
• Chemical Reactions Preview
• Intermolecular Forces Preview
• Melting Points and Boiling Points Preview
• Bond Energy and Reactions Preview
• Reaction Rates Preview
• Ammonia Factory Preview
• Stoichiometry Preview
• Nuclear Chemistry Preview
• Gaining Teacher Access
• Task Tracker Directions
• Conceptual Physics Course
• On-Level Physics Course
• Honors Physics Course
• Chemistry Concept Builders
• All Chemistry Resources
• Users Voice
• Tasks and Classes
• Webinars and Trainings
• Subscription
• Subscription Locator
• 1-D Kinematics
• Newton's Laws
• Vectors - Motion and Forces in Two Dimensions
• Momentum and Its Conservation
• Work and Energy
• Circular Motion and Satellite Motion
• Thermal Physics
• Static Electricity
• Electric Circuits
• Vibrations and Waves
• Sound Waves and Music
• Light and Color
• Reflection and Mirrors
• Measurement and Calculations
• About the Physics Interactives
• Task Tracker
• Usage Policy
• Newtons Laws
• Vectors and Projectiles
• Forces in 2D
• Momentum and Collisions
• Circular and Satellite Motion
• Balance and Rotation
• Electromagnetism
• Waves and Sound
• Atomic Physics
• Forces in Two Dimensions
• Work, Energy, and Power
• Circular Motion and Gravitation
• Sound Waves
• 1-Dimensional Kinematics
• Circular, Satellite, and Rotational Motion
• Einstein's Theory of Special Relativity

Waves, Sound and Light

• QuickTime Movies
• About the Concept Builders
• Pricing For Schools
• Directions for Version 2
• Measurement and Units
• Relationships and Graphs
• Rotation and Balance
• Vibrational Motion
• Reflection and Refraction
• Teacher Accounts
• Kinematic Concepts
• Kinematic Graphing
• Wave Motion
• Sound and Music
• About CalcPad
• 1D Kinematics
• Vectors and Forces in 2D
• Simple Harmonic Motion
• Rotational Kinematics
• Rotation and Torque
• Rotational Dynamics
• Electric Fields, Potential, and Capacitance
• Transient RC Circuits
• Light Waves
• Units and Measurement
• Stoichiometry
• Molarity and Solutions
• Thermal Chemistry
• Acids and Bases
• Kinetics and Equilibrium
• Solution Equilibria
• Oxidation-Reduction
• Nuclear Chemistry
• Newton's Laws of Motion
• Work and Energy Packet
• Static Electricity Review
• NGSS Alignments
• 1D-Kinematics
• Projectiles
• Circular Motion
• Magnetism and Electromagnetism
• Graphing Practice
• About the ACT
• ACT Preparation
• For Teachers
• Other Resources
• Solutions Guide
• Solutions Guide Digital Download
• Motion in One Dimension
• Work, Energy and Power
• Chemistry of Matter
• Measurement and the Metric System
• Names and Formulas
• Algebra Based On-Level Physics
• Honors Physics
• Conceptual Physics
• Other Tools
• Frequently Asked Questions
• Purchasing the Download
• Purchasing the Digital Download
• About the NGSS Corner
• NGSS Search
• Force and Motion DCIs - High School
• Energy DCIs - High School
• Wave Applications DCIs - High School
• Force and Motion PEs - High School
• Energy PEs - High School
• Wave Applications PEs - High School
• Crosscutting Concepts
• The Practices
• Physics Topics
• NGSS Corner: Activity List
• NGSS Corner: Infographics
• About the Toolkits
• Position-Velocity-Acceleration
• Position-Time Graphs
• Velocity-Time Graphs
• Newton's First Law
• Newton's Second Law
• Newton's Third Law
• Terminal Velocity
• Projectile Motion
• Forces in 2 Dimensions
• Impulse and Momentum Change
• Momentum Conservation
• Work-Energy Fundamentals
• Work-Energy Relationship
• Roller Coaster Physics
• Satellite Motion
• Electric Fields
• Circuit Concepts
• Series Circuits
• Parallel Circuits
• Describing-Waves
• Wave Behavior Toolkit
• Standing Wave Patterns
• Resonating Air Columns
• Wave Model of Light
• Plane Mirrors
• Curved Mirrors
• Teacher Guide
• Using Lab Notebooks
• Current Electricity
• Light Waves and Color
• Reflection and Ray Model of Light
• Refraction and Ray Model of Light
• Teacher Resources
• Subscriptions

• Newton's Laws
• Einstein's Theory of Special Relativity
• About Concept Checkers
• School Pricing
• Newton's Laws of Motion
• Newton's First Law
• Newton's Third Law

Calculator Pad, Version 2

The calculator pad.

Use the links to the various Subjects included in The Calculator Pad to access the Physics (and Chemistry) Problem Sets. The Free versions of each Problem Set are linked to from each Subject page. Task Tracker users should access their teacher-assigned Problem Sets from the Assignment Board on their Class page . 

About The Calculator Pad  || Teacher Accounts  Pricing for Schools || Task Tracker Directions

Electricity

Other calculator pad resources:.

Complimentary 1-hour tutoring consultation Schedule Now

Conquering MCAT Physics: Top Concepts and Problem-Solving Strategies

The MCAT physics section consists of 59 multiple-choice questions that assess your understanding of physics concepts and your ability to apply them to solve problems. The section covers various topics, including mechanics, electricity and magnetism, waves and optics, and thermodynamics. To succeed in MCAT physics, you need to have a strong grasp of the fundamental concepts and develop effective problem-solving strategies. Let’s explore some top concepts and problem-solving strategies to help you conquer MCAT physics.

Understanding the MCAT Physics Section

To excel in the MCAT physics section , it is essential to have a strong foundation of basic physics concepts and problem-solving strategies. Therefore, your MCAT study plan should include ample time to cover all the relevant topics and practice solving MCAT-style physics problems. Some of the critical topics to focus on include mechanics, which covers the study of motion, forces, and energy, electricity and magnetism, which examines the behavior of electric charges and magnetic fields, optics, which involves the study of light and its properties, and thermodynamics, which deals with the study of heat and its effects.

The MCAT physics section is not just about memorizing formulas and equations; it also requires critical thinking and problem-solving skills. To excel in this section, you must learn how to analyze and interpret data, identify key concepts and relationships, and apply mathematical formulas to solve complex problems. Practice is the key to mastering these skills, so make sure to solve as many MCAT-style physics problems as possible.

Moreover, time management is a crucial factor in the MCAT physics section. You will have 95 minutes to answer 59 multiple-choice questions, so it’s important to pace yourself and manage your time effectively. You can use a timer to keep track of your time and ensure that you allocate enough time for each question.

Lastly, it’s essential to stay calm and focused during the MCAT physics section. The pressure of the exam can cause stress and anxiety, which can negatively impact your performance. Therefore, it’s crucial to practice relaxation techniques such as deep breathing or meditation to help you stay calm and focused during the exam.

Top Concepts in MCAT Physics

• Kinematics and Mechanics

To fully understand the MCAT physics section, it’s crucial to have a solid grasp of these key concepts. For example, kinematics is the foundation of all motion-related topics in physics. Understanding the relationships between velocity, acceleration, and displacement is crucial in solving problems related to motion. Similarly, mechanics , which deals with forces and energy, is an essential concept to comprehend. By understanding the laws of motion and conservation of energy, you can easily solve complex physics problems.

• Electricity and Magnetism

Electricity and magnetism are also vital concepts in MCAT physics. This topic involves understanding electric fields, electric potential, circuits, and magnetic fields. You should be familiar with Ohm’s law and Kirchhoff’s laws, which are fundamental in solving circuit-related problems.

• Waves and Optics

Another critical topic in MCAT physics is waves and optics . Waves are used to describe phenomena such as sound and light, while optics deals with the behavior of light. Understanding wave properties, such as frequency, wavelength, and speed, is necessary for analyzing wave-related problems. The principles of optics, such as reflection and refraction, are crucial in understanding how light behaves when it interacts with different materials.

• Thermodynamics

Finally, thermodynamics is the study of heat transfer and energy conservation. It includes topics such as temperature, heat capacity, and energy transfer. Understanding thermodynamics is essential in solving problems related to energy transfer and heat exchange.

MCAT Physics Problem-Solving Strategies

Here are some effective problem-solving strategies to help you tackle MCAT physics:

Identify the Key Concepts:

One of the most important aspects of solving MCAT physics problems is to identify the key concepts. By reading the question carefully, you can identify what exactly is being asked and which concepts and formulas you need to apply. This will save you time and help you avoid confusion.

Draw a Diagram:

Drawing a diagram or a sketch is another effective strategy to solve MCAT physics problems. This will help you visualize the problem and give you a better understanding of what is being asked. A well-drawn diagram can also help you identify the relationships between variables and the physical processes involved.

Organize Your Work: 

Organizing your work is crucial when solving complex problems. By writing down all the given information, the formula needed to solve the problem, and the final answer, you can avoid making careless mistakes. This strategy also helps you keep track of your work and ensures that you don’t miss any steps.

Using appropriate units is another critical factor in solving MCAT physics problems. The units used in physics represent physical quantities and their relationships. By using the correct units throughout your calculations, you can ensure that your answer is correct and in the correct units.

Check your answer: .

Checking your answer is essential to ensure that your solution is correct and makes sense. You should always double-check your calculations, your units, and your final answer. If your answer seems unreasonable or does not make sense, re-check your work and try again.

MCAT Physics Study and Preparation Tips

Studying for the MCAT physics section can be overwhelming, but with a solid study plan and consistent effort, you can conquer this challenging section. Here are some tips to help you prepare for the MCAT physics section:

Study Regularly:

 To develop a strong foundation in the key concepts of physics, it’s essential to study regularly and consistently. Set aside dedicated study time every week, and use this time to review class notes, read physics textbooks, and practice solving physics problems.

Practice Frequently:

 Physics is a subject that requires practice to develop your problem-solving skills. To improve your proficiency in physics, practice solving problems as much as possible. Start with easy problems and gradually increase the difficulty level as you progress.

Use Online Resources: 

The internet is a vast resource for MCAT physics study materials. Take advantage of online resources such as Khan Academy and MCAT prep courses to supplement your studies. These resources provide video tutorials, practice problems, and detailed explanations that can help you reinforce the key concepts.

Review Your Mistakes: 

It’s essential to learn from your mistakes to improve your performance. Review your mistakes and identify areas that need improvement to adjust your study plan accordingly. If you’re struggling with a particular concept, go back to your physics textbooks or online resources to reinforce your understanding.

Take Practice Tests:

 Taking MCAT physics practice tests is an excellent way to evaluate your progress and identify areas that need more attention. Practice tests simulate the actual MCAT test, helping you get accustomed to the test format and timing. Use the results from your practice tests to adjust your study plan and focus on your weak areas.

10 Best Tips on How to Study for MCAT Physics

Studying for the MCAT physics section can be challenging, but with the right approach and strategies, you can improve your understanding and performance. Here are some tips to help you effectively study for MCAT physics:

Understand the content: 

Start by reviewing the foundational physics concepts covered on the MCAT. Make sure you have a solid understanding of topics like mechanics, electricity and magnetism, optics, thermodynamics, and atomic and nuclear physics.

Use reputable resources:

Choose high-quality study materials specifically designed for the MCAT physics section. Popular resources include textbooks like “Physics for the MCAT” or review books from reputable publishers. Additionally, online resources such as Khan Academy and AAMC practice materials can be valuable.

Create a study plan: 

Develop a structured study plan that covers all the relevant physics topics within a designated timeframe. Break down your study sessions into manageable chunks, and allocate specific time for reviewing, practicing questions, and taking practice exams.

Practice with MCAT-style questions: 

The MCAT is not just about understanding concepts; it also tests your ability to apply them to real-world scenarios. Use practice questions from reputable sources, such as AAMC question packs or third-party practice exams, to simulate the test environment and familiarize yourself with the question format.

Work on problem-solving skills:

 Physics is often about problem-solving and applying formulas to solve complex scenarios. Practice breaking down problems, identifying the relevant concepts, and applying the appropriate equations. Work on improving your ability to reason through physics-related scenarios and use critical thinking skills to solve problems.

Review and reinforce weak areas:

 Identify your weak areas through practice questions and review sessions. Allocate extra time to reinforce your understanding of these topics by revisiting relevant study materials, seeking clarification from textbooks or online resources, and working on additional practice questions related to those areas.

Form study groups or seek help: 

Collaborating with fellow students who are also studying for the MCAT can be beneficial. Form study groups to discuss challenging concepts, explain concepts to each other, and solve problems collaboratively. If you need additional help, consider seeking guidance from professors, tutors, or online communities specializing in MCAT preparation.

Take full-length practice exams:

 In addition to practicing individual questions, it’s essential to take full-length practice exams to assess your overall performance and get accustomed to the timing and stress of the real test. Analyze your results to identify areas that need further improvement and adjust your study plan accordingly.

Review and revise consistently: 

Consistency is key when studying for the MCAT physics section. Regularly review and revise the concepts you’ve learned to ensure they stay fresh in your mind. Use spaced repetition techniques to reinforce your understanding and minimize forgetting.

Stay motivated and take care of yourself: 

Studying for the MCAT can be a long and demanding process, so it’s crucial to stay motivated and take care of your well-being. Set realistic goals, reward yourself for achieving milestones, maintain a healthy balance between studying and self-care activities, and seek support from friends and family when needed.

In conclusion, conquering the MCAT physics section requires a combination of a strong foundation in the key concepts and effective problem-solving strategies. Study regularly, practice solving problems, use online resources, review your mistakes, and take practice tests to prepare yourself adequately for the MCAT physics section. Remember that consistency and persistence are essential, and with the right study plan and effort, you can succeed in the MCAT physics section.

You can always contact Jack Westin’s team of academic consultants for more tailor-made advice during your MCAT prep journey. Make sure to check out our website for affordable MCAT online courses , tutoring options , free weekly sessions , practice questions , and more!

Your Notifications Live Here

{{ notification.creator.name }} Spark

{{ announcement.creator.name }}

Trial Session Enrollment

Live trial session waiting list.

Next Trial Session:

{{ nextFTS.remaining.months }} {{ nextFTS.remaining.months > 1 ? 'months' : 'month' }} {{ nextFTS.remaining.days }} {{ nextFTS.remaining.days > 1 ? 'days' : 'day' }} {{ nextFTS.remaining.days === 0 ? 'Starts Today' : 'remaining' }} Starts Today

Recorded Trial Session

This is a recorded trial for students who missed the last live session.

Waiting List Details:

Due to high demand and limited spots there is a waiting list. You will be notified when your spot in the Trial Session is available.

• Learn Basic Strategy for CARS
• Full Jack Westin Experience
• Interactive Online Classroom
• Emphasis on Timing

Next Trial:

Free Trial Session Enrollment

Daily mcat cars practice.

New MCAT CARS passage every morning.

You are subscribed.

{{ nextFTS.remaining.months }} {{ nextFTS.remaining.months > 1 ? 'months' : 'month' }} {{ nextFTS.remaining.days }} {{ nextFTS.remaining.days > 1 ? 'days' : 'day' }} remaining Starts Today

Welcome Back!

Please sign in to continue..

Please sign up to continue.

{{ detailingplan.name }}.

• {{ feature }}

Please ensure that your password is at least 8 characters and contains each of the following:

• a special character: @$#!%*?&

• You Are At:

OpenAI's new model can solve complex math, physics problems with greater accuracy than many teachers

Openai’s gpt-4o was only able to solve 13 percent of the problems in the international mathematics olympiad correctly. the new model is more advanced and can think like humans before responding to a problem..

The new AI model has various applications. It can be used by healthcare researchers to annotate cell sequencing data, by physicists to generate complex mathematical formulas for quantum optics, and by developers across different domains to build and execute multi-step workflows.

“We've developed a new series of AI models designed to spend more time thinking before they respond. They can reason through complex tasks and solve harder problems than previous models in science, coding, and math,” the company added.

During tests, the model performed similarly to PhD students on challenging benchmark tasks in physics, chemistry, and biology.

“We also found that it excels in maths and coding. In a qualifying exam for the International Mathematics Olympiad (IMO), GPT-4o correctly solved only 13 per cent of problems, while the reasoning model scored 83 per cent,” said OpenAI.

The coding abilities were evaluated in contests, and the model reached the 89th percentile in Codeforces competitions. As an early model, it currently lacks many of the features that make ChatGPT useful, such as web browsing for information, and uploading files and images.

However, for complex reasoning tasks, this marks a significant advancement and represents a new level of AI capability.

"Given this, we are resetting the counter back to 1 and naming this series OpenAI o1," the company announced.

OpenAI has also developed a more affordable model in the 'reasoning' series, called OpenAI o1-mini. This is a faster reasoning model that is particularly effective for coding tasks. As a smaller model, o1-mini is 80 percent cheaper than o1-preview, making it a powerful, cost-effective model for applications that require reasoning but not broad world knowledge.

ALSO READ:  UIDAI warns users to avoid these common Aadhaar card mistakes

Inputs from IANS

Read all the Breaking News Live on indiatvnews.com and Get Latest English News & Updates from Technology

• Artificial Intelligence
• reasoning ability

Mukhtar Ansari was 'garibon ka masihaa', says Maulana Mahmood Madani in Aap Ki Adalat

Nayanthara's X account gets hacked, asks fans to 'ignore unnecessary or strange tweets'

Diamond League Final Live: Neeraj Chopra returns to action in Brussels, eyes first-ever 90m throw

Related Technology News

CCI alleges anti-competitive practices by Samsung, Xiaomi, Amazon, Flipkart

Jio Rs 249 vs Rs 299 recharge plan: Which plan is best for you?

How to reset UPI PIN using ATM card? An easy guide

BSNL 4G rollout timeline revealed: Here's when you can expect nationwide availability

BSNL's new 54-day 4G plan offers more than just free calls, leaving Jio, Airtel skeptical

Latest News

Nashik: Last rites of Indian student who died in Kyrgyzstan road accident conducted

Earth set to capture new mini-moon: Rare asteroid 2024 PT5 to orbit for two months

• Aap Ki Adalat
• Aaj Ki Baat
• Kurukshetra
• Haqiqat Kya Hai
• Entertainment

Coffee Par Kurukshetra: What kind of messages are coming in the mobile phones of Muslims?

Muqabla: Jammu Kashmir to Haryana...Modi in full form in the election field?

Sanjauli Mosque row: From reciting ‘Hanuman Chalisa’ to ‘Bandh’, protests spread across Himachal

J&K Polls: Voter Awareness Program organized in Srinagar under SVEEP

PM Modi welcomes 'new member Deepjyoti' at 7 Lok Kalyan Marg, shares pictures

• Maharashtra
• Uttar Pradesh
• Madhya Pradesh
• West Bengal
• Jammu & Kashmir
• Chhattisgarh

Breaking News, September 14 | HIGHLIGHTS

Port Blair, Andaman and Nicobar capital, renamed as Sri Vijaya Puram, tweets Amit Shah

DRDO successfully completes first phase of field firing trials for Indian light tank

'My father was on flight hijacked in 1984, I was dealing with it,' reveals Jaishankar in Geneva

DRDO, Navy successfully test Vertical Launch Short Range Surface-to-Air Missile (VL-SRSAM) | WATCH

• Assembly Elections
• Celebrities

Tumbbad vs The Buckingham Murders: Sohum Shah's 2018 film beats Kareena Kapoor's new release

TMKOC: Olympic medalist Aman Sehrawat surprises Gokuldham Society with grand entry | WATCH

The Great Indian Kapil Show Season 2's trailer gives glimpse of upcoming celebrity guests | WATCH

Nicole Kidman thanks fans for their support and respecting privacy after her mother's death

• Live Scores
• Other Sports

ENG vs AUS Pitch Report: How will surface at Old Trafford in Manchester will play in 3rd T20I match?

Charles Leclerc claims pole at F1 Azerbaijan Grand Prix; Norris to start at 17th, Verstappen at 6th

After hitting century, Ishan Kishan turns into bowler in India B vs India C Duleep Trophy match

Pratham Singh and Tilak Varma's tons give India D huge score to chase in Duleep Trophy second round

How many crorepatis, commoners are in fray for first phase of Jammu-Kashmir Assembly Elections 2024?

Ghost Hackers: A new fraud Targeting deceased | Explained

Ukraine plans to use UK’s ‘Storm Shadow’ missiles against Russia | How they will help Kyiv?

Shimla mosque row: How a single-floor mosque expanded into a 5-storey structure in Himachal Pradesh?

What is Shimla mosque dispute case, why are locals protesting over its construction | EXPLAINED

Bank holiday on Monday: Will banks remain closed on September 16 for Eid-E-Milad? CHECK HERE

10 new Vande Bharat Express trains to be launched on Sept 15: Check full list, route

Adani Group features in TIME's world's best companies 2024 list

Modi government removes minimum export price or MEP on onion exports

Postal department to provide doorstep services to submit digital life certificates

World Lymphoma Awareness Day 2024: Know symptoms, risk factors and treatment for this disease

Do you prefer to booze before sleep? Know how it impacts your brain

World First Aid Day 2024: Tips to administrate accident victims with serious injuries

High cholesterol? Drink THIS Ayurvedic drink on empty stomach to get benefits

Illness due to getting drenched in rain? Drink this desi kadha to get rid of cold and cough