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Sadok Smine

This 30+ hours course goes from Newtonian Mechanics, all the way to the mind-blowing world of Quantum Mechanics. It contains crystal clear video explanation of all the AP Physics curriculum, it also includes PHET Simulations so that you don't get bored and fall asleep or you know, curse me on the comment section.

You'll also find 300+ practice exercises including MCQs and numerical problems. The solutions to these problems are given in video and PDF forms.

And if maybe that's not enough practice, I've also included tons of worked additional problems from various resources.

Read more

This 30+ hours course goes from Newtonian Mechanics, all the way to the mind-blowing world of Quantum Mechanics. It contains crystal clear video explanation of all the AP Physics curriculum, it also includes PHET Simulations so that you don't get bored and fall asleep or you know, curse me on the comment section.

You'll also find 300+ practice exercises including MCQs and numerical problems. The solutions to these problems are given in video and PDF forms.

And if maybe that's not enough practice, I've also included tons of worked additional problems from various resources.

You'll also find a summary as a PDF file taken from my favorite book which I will provide the link to, these summaries are included in the last course lecture of every section as a resource. The exercises PDF files are included in the practice exercises lectures. 

What students say about this course: "Just finished the whole course, one word: PERFECT. I'd recommend this to anyone learning or majoring in Physics. Thank you so much for your help. " _ Michael Carrot

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What's inside

Learning objectives

  • One dimensional kinematics
  • Two dimensional kinematics
  • Forces and newton's laws of motion
  • Work and energy
  • Linear momentum and collisions
  • Rotational motion
  • Gravitation
  • Fluid mechanics
  • Oscillations and waves
  • Heat and temperature
  • Thermodynamics
  • Electrostatics and electricity
  • Magnetism and electromagnetism
  • Optics and light
  • Special relativity
  • Introduction to the quantum world
  • Atomic and nuclear physics
  • Show more
  • Show less

Syllabus

Acceleration, Instantaneous Velocity and Graphs
AP Physics: Introduction
Course Overview
Basic Trigonometry Review
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Vectors and Scalars
Cosine Rule and Triangle Law
One Dimensional Kinematics
Average Speed and Average Velocity
Free Fall
Practice Exercises
Two Dimensional Kinematics
Horizontally Launched Projectiles
Projectile Launched at An Angle
Forces and Newtons's Laws
Introduction To Forces
Newton’s First Law of Motion
Newton's Second Law of Motion
Newton’s Third Law of Motion
Weight and Normal Force
Inclined Planes
Friction
Uniform Circular Motion And The Centripetal Acceleration
Central Forces
Angular Momentum and It's Conservation
Work and Energy
Work
Potential and Kinetic Energy
Potentiel and Kinetic Energy in a Pendulum
Hooke's Law
Work-Energy Theorem
Conservation of Energy
Linear Momentum and Collisions
Linear Momentum and Impulse
Conservation of Linear Momentum
Collisions
Center of Mass
Rotational Motion
Torque
Angular Position, Displacement, Velocity and Acceleration
Rotational Equilibrium
Moment of Inertia
Gravitation
Kepler's Laws of Planetary Motion
Newton’s Law of Universal Gravitation
Satellites Orbit
Gravitational Potential Energy in Space and The Escape Velocity
Derivation of GPE In outer Space(Calculus)
Fluid Mechanics
Introduction To Fluid Mechanics: Fluid Statics
Pascal’s Principle
Archimedes Principle
Flow Rate
Bernoulli’s Principle
Heat and Temperature
Introduction to Thermal Physics
Heat Transfer and Temperature Change
Phase Changes
Thermal Expansion
Mechanisms of Heat Transfer
Charle's Law and Boyle's Law
Ideal Gas Law
The Kinetic Theory of Gases
Thermodynamics
Introduction To Thermodynamics and The Zeroth Law
First Law of Thermodynamics
Thermodynamic Processes
Second Law of Thermodynamics
The Heat Engine and The Carnot Cycle
Oscillations and Waves
Introduction To Oscillating Motion
Writing The Equation For a Sinusoidal Wave
Acceleration Equation of a Sine Wave and Proof of The Period Formula (Calculus)
Damped Oscillations
Transverse Waves
Longitudinal Waves: Sound
Superposition, Destructive and Constructive Interference
Standing Waves
Reflection Of Waves On a String
Resonance
Doppler Effect
Electricity and Electrostatics
Electric Charge and Conservation of Charge
Coulomb's Law
Superposition of Charges
The Electric Field
Electric Potential Energy
Electric Potential
Work Done On a Charge at Infinite Distance (Calculus)
Conductors and Insulators
Electric Current

Good to know

Know what's good
, what to watch for
, and possible dealbreakers
Covers a wide range of topics from Newtonian mechanics to quantum mechanics, aligning well with the AP Physics curriculum and introductory college physics
Includes PHET simulations, which can help students visualize complex physics concepts and make learning more engaging and interactive
Offers over 300 practice exercises, including MCQs and numerical problems, providing ample opportunity for students to test their understanding and problem-solving skills
Provides video and PDF solutions to practice problems, allowing students to learn from their mistakes and reinforce their understanding of the concepts
Requires a review of basic trigonometry, which may pose a challenge for students who lack a solid foundation in this area of mathematics
Includes calculus-based derivations, which may be challenging for students without a background in calculus, despite being presented in video format

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Activities

Be better prepared before your course. Deepen your understanding during and after it. Supplement your coursework and achieve mastery of the topics covered in The Complete AP and College Physics Course with these activities:
Review Basic Trigonometry
Reinforce your understanding of trigonometric functions and identities, which are essential for solving physics problems involving angles and vectors.
Browse courses on Trigonometry
Show steps
  • Review trigonometric ratios (sine, cosine, tangent) and their relationships.
  • Practice solving right triangle problems using trigonometric functions.
  • Review trigonometric identities and their applications.
Review Vector Addition and Subtraction
Strengthen your skills in vector manipulation, which is crucial for understanding kinematics, forces, and fields in physics.
Show steps
  • Review graphical and analytical methods for vector addition.
  • Practice resolving vectors into components.
  • Solve problems involving vector addition and subtraction in two dimensions.
Read 'Six Easy Pieces' by Richard Feynman
Gain a deeper conceptual understanding of fundamental physics principles through Feynman's engaging explanations.
Show steps
  • Read one chapter per week, focusing on the core concepts.
  • Reflect on how the concepts relate to the course material.
  • Discuss the concepts with peers or in online forums.
Four other activities
Expand to see all activities and additional details
Show all seven activities
Solve Kinematics Problems
Improve your problem-solving skills by working through a variety of kinematics problems, including those involving projectile motion and free fall.
Browse courses on Kinematics
Show steps
  • Gather a set of kinematics problems from textbooks or online resources.
  • Solve each problem step-by-step, showing all work.
  • Check your answers against the solutions and identify areas for improvement.
Create a Physics Simulation
Solidify your understanding of a specific physics concept by creating an interactive simulation using tools like PHET or other simulation software.
Browse courses on PhET Simulations
Show steps
  • Choose a physics concept, such as projectile motion or simple harmonic motion.
  • Research the equations and principles governing the concept.
  • Use a simulation tool to create an interactive model of the concept.
  • Test the simulation and refine it based on your observations.
Read 'University Physics' by Young and Freedman
Use this book as a reference to deepen your understanding of course topics and explore related concepts.
Show steps
  • Refer to the book for clarification on challenging topics.
  • Work through the example problems in the book.
  • Use the book as a resource for further exploration of physics concepts.
Tutor Other Students
Reinforce your understanding of physics concepts by tutoring other students who are struggling with the material.
Browse courses on Physics
Show steps
  • Offer tutoring services to classmates or students in lower-level physics courses.
  • Prepare for tutoring sessions by reviewing the relevant material.
  • Explain concepts in a clear and concise manner, using examples and analogies.
  • Answer questions and provide guidance to help students solve problems.

Career center

Learners who complete The Complete AP and College Physics Course will develop knowledge and skills that may be useful to these careers:
Physics Teacher
A physics teacher introduces students to the fundamental principles of the physical world, guiding them through complex concepts and fostering a love for scientific inquiry. This comprehensive physics course, covering topics from Newtonian mechanics to quantum mechanics, directly aligns with the knowledge base required to teach physics effectively at various educational levels. The inclusion of video explanations, simulations, and a vast array of practice problems provide a solid foundation to both understand the concepts and develop effective teaching strategies. One who is interested in becoming a physics teacher should take this course to help build the required subject matter expertise.
Research Scientist
Research scientists design and conduct experiments, analyze data, and contribute to advancements in scientific knowledge. This course, which spans classical to modern physics, aligns well with the foundational knowledge required for a research scientist, particularly one focused on physics. The course's breadth of topics, from classical mechanics to quantum theory, helps to build the theoretical base of those who wish to conduct research in physics. The course's practice problems help build skills necessary to complete scientific research. Those interested in becoming a research scientist should take this course to help build the fundamental subject matter expertise. A research scientist typically holds a master's or doctoral degree.
Geophysicist
Geophysicists study the Earth's physical properties using principles of physics. This course provides a strong foundation in the physics concepts that are essential to this career field, including mechanics, gravitation, and wave phenomena. The course's coverage of topics like fluid mechanics and thermodynamics are highly relevant to the subsurface behavior that geophysicists study. A geophysicist should take this course in order to build the fundamental knowledge and skills needed for success.
Aerospace Engineer
Aerospace engineers design, develop, and test aircraft, spacecraft, and related systems. A deep understanding of physics is essential, and this course helps build a strong foundation in the core principles that underlie aerospace engineering, including mechanics, thermodynamics, and fluid mechanics. The course's coverage of topics, such as gravitation, oscillations, and waves, helps those who wish to work in aerospace engineering. An aerospace engineer should take this course to help build the core physics knowledge needed for success.
Mechanical Engineer
Mechanical engineers design, develop, and manufacture mechanical devices and systems. A strong background in physics is critical for this role, and this course provides a comprehensive overview of the fundamental principles that mechanical engineers apply on a daily basis. The course's thorough treatment of mechanics, energy, and materials provides a helpful foundation to those who wish to work as mechanical engineers. The course's practice problems help build the problem-solving skills needed in this role. Those considering a role as a mechanical engineer should take this course to build the requisite core physics knowledge.
Materials Scientist
Materials scientists investigate the structure and properties of various materials. This course provides a foundation in the physics principles essential to understanding materials at the atomic level, such as mechanics, thermodynamics, and electromagnetism, which may be useful to a materials scientist. The concepts of oscillations, waves, and heat transfer may also be helpful. A materials scientist should take this course to build the foundational knowledge required.
Biomedical Engineer
Biomedical engineers apply engineering principles to healthcare, designing medical devices and systems. This course's foundational physics knowledge directly translates to many aspects of biomedical engineering, such as understanding biomechanics, fluid flow in the body, and electrical signals. The concepts and equations introduced in the course may be useful for conceptualizing technology within medical contexts. A biomedical engineer should take this course to help build the fundamental subject matter expertise needed.
Patent Attorney
Patent attorneys specialize in intellectual property law, dealing with patents for inventions. Although this course is not related to law, the technical knowledge gained here may be useful for a patent attorney who specializes in the areas of physics, engineering, or technology. The detailed understanding of physical principles from the course may help a patent attorney analyze the patentability of a physics-related invention. A patent attorney focused on technology should take this course to help build the knowledge base needed for this role. This role requires a law degree.
Data Scientist
Data scientists extract insights from data using statistical and machine learning techniques. This course, while not directly focused on data science, helps to build the analytical and problem-solving skills that are critical to data science. The course's focus on mathematical problem-solving and model development may help those who wish to develop complex models in a quantitative field. A data scientist should take this course to help cultivate critical thinking skills. A data scientist typically holds a master's degree.
Software Engineer
Software engineers design, develop, and maintain software systems. While this course is not focused on computer science, the problem-solving and analytical skills that are taught in this course may be useful for software engineers. The course's emphasis on problem solving, logical thinking, and mathematical concepts helps to build a helpful foundation. The ability to model physics may be helpful for those working in fields such as simulation software, game development, and robotics. One who wishes to become a software engineer may find this course useful as one component of building a well-rounded analytical skill set.
Environmental Engineer
Environmental engineers work to protect the environment and human health by designing solutions to environmental problems. While this course is not focused on environmental science, the principles of physics covered, particularly fluid mechanics and thermodynamics, are relevant. The skills in mathematical modeling and problem-solving may be useful. An environmental engineer may find this course helpful.
Financial Analyst
Financial analysts evaluate financial data to make investment recommendations or assess financial performance. Although this course does not focus on finance, the analytical and problem-solving skills developed may be useful to a financial analyst. The course's emphasis on mathematical modeling and quantitative thinking may be helpful in the financial sector. While not a core component of working in finance, the practice of solving problems in this course may be useful. A financial analyst may find this course useful to build their quantitative analysis skillset.
Actuary
Actuaries assess and manage financial risk through mathematical modeling. Although this course is not related to actuarial science, the analytical and problem-solving skills that are taught here may be useful. The conceptual understanding of mathematical models in science may be useful when creating models in the actuarial field. While not a requirement, an actuary may find this course useful to help build analytical skills.
Science Journalist
Science journalists communicate complex scientific information to the public in a clear and engaging manner. This course provides a solid foundation within physics, which may be useful for an individual covering the field. The clear explanations and diverse materials (videos, simulations, practice problems), may help develop skills in understanding physics and explaining it to others. A science journalist who would like to report on physics and related topics may find this course useful.
Statistician
Statisticians collect and interpret quantitative data. While this course does not focus on statistics, the practice in problem solving and quantitative analysis that it provides may be useful. The course incorporates a variety of practice questions, which may be useful to those who would like to work in statistics. The experience of working through complex modeling in physics may be helpful to a statistician as they work within other domains. A statistician may find this course useful to help them hone their critical thinking skills.

Reading list

We've selected two books that we think will supplement your learning. Use these to develop background knowledge, enrich your coursework, and gain a deeper understanding of the topics covered in The Complete AP and College Physics Course.
This comprehensive textbook covers a wide range of physics topics, providing a solid foundation for understanding advanced concepts. It serves as an excellent reference for reinforcing the material covered in the course. It is commonly used as a textbook at academic institutions. The book provides additional depth and breadth to the existing course.
Offers a conceptual introduction to fundamental physics principles, explained in an accessible and engaging manner by a renowned physicist. It provides a broader understanding of the underlying concepts covered in the course. While not a direct textbook, it serves as excellent supplementary reading to enhance comprehension and appreciation for the subject matter. It is particularly helpful for students who want to gain a deeper intuitive grasp of physics.

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