presentation physics

1.1 Physics: An Introduction

Learning objectives.

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

Explain the difference between a principle and a law.
Explain the difference between a model and a theory.

The physical universe is enormously complex in its detail. Every day, each of us observes a great variety of objects and phenomena. Over the centuries, the curiosity of the human race has led us collectively to explore and catalog a tremendous wealth of information. From the flight of birds to the colors of flowers, from lightning to gravity, from quarks to clusters of galaxies, from the flow of time to the mystery of the creation of the universe, we have asked questions and assembled huge arrays of facts. In the face of all these details, we have discovered that a surprisingly small and unified set of physical laws can explain what we observe. As humans, we make generalizations and seek order. We have found that nature is remarkably cooperative—it exhibits the underlying order and simplicity we so value.

It is the underlying order of nature that makes science in general, and physics in particular, so enjoyable to study. For example, what do a bag of chips and a car battery have in common? Both contain energy that can be converted to other forms. The law of conservation of energy (which says that energy can change form but is never lost) ties together such topics as food calories, batteries, heat, light, and watch springs. Understanding this law makes it easier to learn about the various forms energy takes and how they relate to one another. Apparently unrelated topics are connected through broadly applicable physical laws, permitting an understanding beyond just the memorization of lists of facts.

The unifying aspect of physical laws and the basic simplicity of nature form the underlying themes of this text. In learning to apply these laws, you will, of course, study the most important topics in physics. More importantly, you will gain analytical abilities that will enable you to apply these laws far beyond the scope of what can be included in a single book. These analytical skills will help you to excel academically, and they will also help you to think critically in any professional career you choose to pursue. This module discusses the realm of physics (to define what physics is), some applications of physics (to illustrate its relevance to other disciplines), and more precisely what constitutes a physical law (to illuminate the importance of experimentation to theory).

Science and the Realm of Physics

Science consists of the theories and laws that are the general truths of nature as well as the body of knowledge they encompass. Scientists are continually trying to expand this body of knowledge and to perfect the expression of the laws that describe it. Physics is concerned with describing the interactions of energy, matter, space, and time, and it is especially interested in what fundamental mechanisms underlie every phenomenon. The concern for describing the basic phenomena in nature essentially defines the realm of physics .

Physics aims to describe the function of everything around us, from the movement of tiny charged particles to the motion of people, cars, and spaceships. In fact, almost everything around you can be described quite accurately by the laws of physics. Consider a smart phone ( Figure 1.3 ). Physics describes how electricity interacts with the various circuits inside the device. This knowledge helps engineers select the appropriate materials and circuit layout when building the smart phone. Next, consider a GPS system. Physics describes the relationship between the speed of an object, the distance over which it travels, and the time it takes to travel that distance. GPS relies on precise calculations that account for variations in the Earth's landscapes, the exact distance between orbiting satellites, and even the effect of a complex occurrence of time dilation. Most of these calculations are founded on algorithms developed by Gladys West, a mathematician and computer scientist who programmed the first computers capable of highly accurate remote sensing and positioning. When you use a GPS device, it utilizes these algorithms to recognize where you are and how your position relates to other objects on Earth.

Applications of Physics

You need not be a scientist to use physics. On the contrary, knowledge of physics is useful in everyday situations as well as in nonscientific professions. It can help you understand how microwave ovens work, why metals should not be put into them, and why they might affect pacemakers. (See Figure 1.4 and Figure 1.5 .) Physics allows you to understand the hazards of radiation and rationally evaluate these hazards more easily. Physics also explains the reason why a black car radiator helps remove heat in a car engine, and it explains why a white roof helps keep the inside of a house cool. Similarly, the operation of a car’s ignition system as well as the transmission of electrical signals through our body’s nervous system are much easier to understand when you think about them in terms of basic physics.

Physics is the foundation of many important disciplines and contributes directly to others. Chemistry, for example—since it deals with the interactions of atoms and molecules—is rooted in atomic and molecular physics. Most branches of engineering are applied physics. In architecture, physics is at the heart of structural stability, and is involved in the acoustics, heating, lighting, and cooling of buildings. Parts of geology rely heavily on physics, such as radioactive dating of rocks, earthquake analysis, and heat transfer in the Earth. Some disciplines, such as biophysics and geophysics, are hybrids of physics and other disciplines.

Physics has many applications in the biological sciences. On the microscopic level, it helps describe the properties of cell walls and cell membranes ( Figure 1.6 and Figure 1.7 ). On the macroscopic level, it can explain the heat, work, and power associated with the human body. Physics is involved in medical diagnostics, such as x-rays, magnetic resonance imaging (MRI), and ultrasonic blood flow measurements. Medical therapy sometimes directly involves physics; for example, cancer radiotherapy uses ionizing radiation. Physics can also explain sensory phenomena, such as how musical instruments make sound, how the eye detects color, and how lasers can transmit information.

It is not necessary to formally study all applications of physics. What is most useful is knowledge of the basic laws of physics and a skill in the analytical methods for applying them. The study of physics also can improve your problem-solving skills. Furthermore, physics has retained the most basic aspects of science, so it is used by all of the sciences, and the study of physics makes other sciences easier to understand.

Models, Theories, and Laws; The Role of Experimentation

The laws of nature are concise descriptions of the universe around us; they are human statements of the underlying laws or rules that all natural processes follow. Such laws are intrinsic to the universe; humans did not create them and so cannot change them. We can only discover and understand them. Their discovery is a very human endeavor, with all the elements of mystery, imagination, struggle, triumph, and disappointment inherent in any creative effort. (See Figure 1.8 and Figure 1.9 .) The cornerstone of discovering natural laws is observation; science must describe the universe as it is, not as we may imagine it to be.

We all are curious to some extent. We look around, make generalizations, and try to understand what we see—for example, we look up and wonder whether one type of cloud signals an oncoming storm. As we become serious about exploring nature, we become more organized and formal in collecting and analyzing data. We attempt greater precision, perform controlled experiments (if we can), and write down ideas about how the data may be organized and unified. We then formulate models, theories, and laws based on the data we have collected and analyzed to generalize and communicate the results of these experiments.

A model is a representation of something that is often too difficult (or impossible) to display directly. While a model is justified with experimental proof, it is only accurate under limited situations. An example is the planetary model of the atom in which electrons are pictured as orbiting the nucleus, analogous to the way planets orbit the Sun. (See Figure 1.10 .) We cannot observe electron orbits directly, but the mental image helps explain the observations we can make, such as the emission of light from hot gases (atomic spectra). Physicists use models for a variety of purposes. For example, models can help physicists analyze a scenario and perform a calculation, or they can be used to represent a situation in the form of a computer simulation. A theory is an explanation for patterns in nature that is supported by scientific evidence and verified multiple times by various groups of researchers. Some theories include models to help visualize phenomena, whereas others do not. Newton’s theory of gravity, for example, does not require a model or mental image, because we can observe the objects directly with our own senses. The kinetic theory of gases, on the other hand, is a model in which a gas is viewed as being composed of atoms and molecules. Atoms and molecules are too small to be observed directly with our senses—thus, we picture them mentally to understand what our instruments tell us about the behavior of gases.

A law uses concise language to describe a generalized pattern in nature that is supported by scientific evidence and repeated experiments. Often, a law can be expressed in the form of a single mathematical equation. Laws and theories are similar in that they are both scientific statements that result from a tested hypothesis and are supported by scientific evidence. However, the designation law is reserved for a concise and very general statement that describes phenomena in nature, such as the law that energy is conserved during any process, or Newton’s second law of motion, which relates force, mass, and acceleration by the simple equation F = m a F = m a . A theory, in contrast, is a less concise statement of observed phenomena. For example, the Theory of Evolution and the Theory of Relativity cannot be expressed concisely enough to be considered a law. The biggest difference between a law and a theory is that a theory is much more complex and dynamic. A law describes a single action, whereas a theory explains an entire group of related phenomena. And, whereas a law is a postulate that forms the foundation of the scientific method, a theory is the end result of that process.

Less broadly applicable statements are usually called principles (such as Pascal’s principle, which is applicable only in fluids), but the distinction between laws and principles often is not carefully made.

Models, Theories, and Laws

Models, theories, and laws are used to help scientists analyze the data they have already collected. However, often after a model, theory, or law has been developed, it points scientists toward new discoveries they would not otherwise have made.

The models, theories, and laws we devise sometimes imply the existence of objects or phenomena as yet unobserved. These predictions are remarkable triumphs and tributes to the power of science. It is the underlying order in the universe that enables scientists to make such spectacular predictions. However, if experiment does not verify our predictions, then the theory or law is wrong, no matter how elegant or convenient it is. Laws can never be known with absolute certainty because it is impossible to perform every imaginable experiment in order to confirm a law in every possible scenario. Physicists operate under the assumption that all scientific laws and theories are valid until a counterexample is observed. If a good-quality, verifiable experiment contradicts a well-established law, then the law must be modified or overthrown completely.

The study of science in general and physics in particular is an adventure much like the exploration of uncharted ocean. Discoveries are made; models, theories, and laws are formulated; and the beauty of the physical universe is made more sublime for the insights gained.

The Scientific Method

Ibn al-Haytham (sometimes referred to as Alhazen), a 10th-11th century scientist working in Cairo, significantly advanced the understanding of optics and vision. But his contributions go much further. In demonstrating that previous approaches were incorrect, he emphasized that scientists must be ready to reject existing knowledge and become "the enemy" of everything they read; he expressed that scientists must trust only objective evidence. Al-Haytham emphasized repeated experimentation and validation, and acknowledged that senses and predisposition could lead to poor conclusions. His work was a precursor to the scientific method that we use today.

As scientists inquire and gather information about the world, they follow a process called the scientific method . This process typically begins with an observation and question that the scientist will research. Next, the scientist typically performs some research about the topic and then devises a hypothesis. Then, the scientist will test the hypothesis by performing an experiment. Finally, the scientist analyzes the results of the experiment and draws a conclusion. Note that the scientific method can be applied to many situations that are not limited to science, and this method can be modified to suit the situation.

Consider an example. Let us say that you try to turn on your car, but it will not start. You undoubtedly wonder: Why will the car not start? You can follow a scientific method to answer this question. First off, you may perform some research to determine a variety of reasons why the car will not start. Next, you will state a hypothesis. For example, you may believe that the car is not starting because it has no engine oil. To test this, you open the hood of the car and examine the oil level. You observe that the oil is at an acceptable level, and you thus conclude that the oil level is not contributing to your car issue. To troubleshoot the issue further, you may devise a new hypothesis to test and then repeat the process again.

The Evolution of Natural Philosophy into Modern Physics

Physics was not always a separate and distinct discipline. It remains connected to other sciences to this day. The word physics comes from Greek, meaning nature. The study of nature came to be called “natural philosophy.” From ancient times through the Renaissance, natural philosophy encompassed many fields, including astronomy, biology, chemistry, physics, mathematics, and medicine. Over the last few centuries, the growth of knowledge has resulted in ever-increasing specialization and branching of natural philosophy into separate fields, with physics retaining the most basic facets. (See Figure 1.11 , Figure 1.12 , and Figure 1.13 .) Physics as it developed from the Renaissance to the end of the 19th century is called classical physics . It was transformed into modern physics by revolutionary discoveries made starting at the beginning of the 20th century.

Classical physics is not an exact description of the universe, but it is an excellent approximation under the following conditions: Matter must be moving at speeds less than about 1% of the speed of light, the objects dealt with must be large enough to be seen with a microscope, and only weak gravitational fields, such as the field generated by the Earth, can be involved. Because humans live under such circumstances, classical physics seems intuitively reasonable, while many aspects of modern physics seem bizarre. This is why models are so useful in modern physics—they let us conceptualize phenomena we do not ordinarily experience. We can relate to models in human terms and visualize what happens when objects move at high speeds or imagine what objects too small to observe with our senses might be like. For example, we can understand an atom’s properties because we can picture it in our minds, although we have never seen an atom with our eyes. New tools, of course, allow us to better picture phenomena we cannot see. In fact, new instrumentation has allowed us in recent years to actually “picture” the atom.

Limits on the Laws of Classical Physics

For the laws of classical physics to apply, the following criteria must be met: Matter must be moving at speeds less than about 1% of the speed of light, the objects dealt with must be large enough to be seen with a microscope, and only weak gravitational fields (such as the field generated by the Earth) can be involved.

Some of the most spectacular advances in science have been made in modern physics. Many of the laws of classical physics have been modified or rejected, and revolutionary changes in technology, society, and our view of the universe have resulted. Like science fiction, modern physics is filled with fascinating objects beyond our normal experiences, but it has the advantage over science fiction of being very real. Why, then, is the majority of this text devoted to topics of classical physics? There are two main reasons: Classical physics gives an extremely accurate description of the universe under a wide range of everyday circumstances, and knowledge of classical physics is necessary to understand modern physics.

Modern physics itself consists of the two revolutionary theories, relativity and quantum mechanics. These theories deal with the very fast and the very small, respectively. Relativity must be used whenever an object is traveling at greater than about 1% of the speed of light or experiences a strong gravitational field such as that near the Sun. Quantum mechanics must be used for objects smaller than can be seen with a microscope. The combination of these two theories is relativistic quantum mechanics, and it describes the behavior of small objects traveling at high speeds or experiencing a strong gravitational field. Relativistic quantum mechanics is the best universally applicable theory we have. Because of its mathematical complexity, it is used only when necessary, and the other theories are used whenever they will produce sufficiently accurate results. We will find, however, that we can do a great deal of modern physics with the algebra and trigonometry used in this text.

Check Your Understanding

A friend tells you they have learned about a new law of nature. What can you know about the information even before your friend describes the law? How would the information be different if your friend told you they had learned about a scientific theory rather than a law?

Without knowing the details of the law, you can still infer that the information your friend has learned conforms to the requirements of all laws of nature: it will be a concise description of the universe around us; a statement of the underlying rules that all natural processes follow. If the information had been a theory, you would be able to infer that the information will be a large-scale, broadly applicable generalization.

PhET Explorations

Equation grapher.

Learn about graphing polynomials. The shape of the curve changes as the constants are adjusted. View the curves for the individual terms (e.g. y = bx y = bx ) to see how they add to generate the polynomial curve.

As an Amazon Associate we earn from qualifying purchases.

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/1-1-physics-an-introduction

© Jan 19, 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.

The Science of Physics

Chapter Overview

Nature of physics and its related fields
Scientific method of inquiry
Role of models
Basic SI units
Precision vs. accuracy
Scientific notation
Significant digits
Various ways of summarizing data
Dimensional analysis
Estimation procedures

Section 1.1 What is Physics?

Identify activities and fields that involve the major areas within physics
Describe the processes of the scientific method
Describe the role of models and diagrams in physics

1.1 What is Physics?

The study of the physical world
Use a small number of basic concepts, equations, and assumptions to describe the physical world
Can be used to make predictions about a broad range of phenomena
Appliances, tools, buildings, inventions are all basic physics principles put to test

Thermodynamics – Efficient engines, use of coolants

Electromagnetism – Battery, starter, headlights

Optics – Headlights, rearview mirrors

Vibrations and mechanical waves – Shock absorbers, radio speakers, sound insulation

Mechanics – spinning motion of the wheels, tires that provide enough friction or traction

Physics is Everywhere

When you buy ice cream, why do you put it in the freezer when you get home?
**Any problem that deals with temperature, size, motion, position, shape, or color involves physics**
There are major areas of physics that deal with each of these
Design, build, and operate
Best shape so that is remains stable and floating, yet quick and maneuverable
Knowledge of fluids
Efficient shape for sails and how to arrange them
Understanding motion and its causes
Balancing loads
So port isn't heavier than starboard
Knowledge on how the keel keeps the boat moving in one direction
Even though the wind i s blowing in another

The Scientific Method

No single procedure is always taken in an experiment
Certain common steps in all good scientific investigations
There was a car accident and the police were investigating… use the scientific method:
Observations/Data:
Hypothesis:
Experiments/Tests:
Interpret/Revise Hypothesis:
Conclusion:
Simple models are often used to explain the most fundamental features of various phenomena
Common technique
Break an event down into different parts
Use a model for each section

WE WILL ALWAYS DRAW

MODELS!!!!!!

Observations
Ball’s size, spin, weight, color, surroundings, time in the air, speed, and sound when hitting ground
Identify the system
A single object and the items immediately affecting it
Ball and its motion
Disregard any characteristics that don't matter
Color, sound when hitting the ground
In some studies of motion, even size and spin are disregarded

Models Help Build Hypothesis

A hypothesis is a reasonable explanation for observations
Can be tested with additional experiments
Modeling a situation can help identify variables as well
Galileo’s ‘thought experiment’

Models Help Guide Experiments

Galileo performed many experiments
Observing weight only
Used same size objects, just different weight
No way to eliminate air resistance
Used rolling ball down smooth ramps as a model
The steeper the ramp, the closer the representation

Experiments

Must deal with variables
Majority of the time a controlled experiment
Only one variable changed at a time
Used same set of different weight balls
Just down a steeper ramp each time

Hypothesis to Prediction

Until the invention of the air pump, it was impossible to perform direct tests in the absence of air resistance
Reasonably accurate predictions were still made
Experiments are run until results match each other and are in agreement with the hypothesis
If not there could be error
Then the hypothesis must be revised
Conclusions
Are only valid if they can be duplicated and verified by other people under the same conditions
Not only so scientists conduct experiments to test hypothesis
They also RESEARCH!!!
Steps to doing scientific research
Identifying reliable resources
Searching the sources to find references
Checking carefully for opposing views
Documenting sources
Presenting findings to other scientists for review and discussion

Section 1.2 Measurements In Experiments

List basic SI units and the quantities they describe
Convert measurements into scientific notation
Distinguish between accuracy and precision
Use significant figures in measurements and calculations

Numbers as Measurements

When in physics numbers will never stand alone
Means absolutely nothing
Must have units following the number
(anything labeled without units will be wrong) ☺
Length, mass, time, or something else?
If length: inches, centimeters, kilometers, l ight-years?
The units helps tell us what kind of physical quantity being measured
Basic dimensions – length, mass, time
There are many other dimensions as well
Force, velocity , energy, volume, and acceleration
All combinations of length, mass, and time
SI is the standard measurement system for science
Scientists like to use the same system of units for measurement
If not that would be a lot of converting ☹
7 base units that each describe a single dimension
Length – meters (m)
Mass – grams (g)
Time – seconds (s)
Other units derived from the 3 bases

SI Prefixes

A very wide range of measurements will be used
100,000,000,000,000,000 m for distances between stars
.000 000 001 m distances between atoms in a solid
Can deal with powers of ten
Prefixes to go with the powers

Conversions

Using SI, with the prefixes and same base
Conversion factors will always = 1
Any measurement multiplied by a fraction will be multiplied by 1
The number and unit will change but the quantity will stay the same

Dimensional Analysis

Mathematical techniques that uses conversion factors to convert from one unit to another
A typical bacterium has a mass of about 2.0μg. Express this in terms of grams and kilograms.
The mass of an average person is 60,000,000 mg. Express this in grams and kilograms.

Dimension and Units Must Agree

Can’t measure a length then label in kilograms (kg)
Must make sure use correct unit
We will ALWAYS use metric!!
No inches, feet, miles, lbs, tons

Accuracy and Precision

The closeness of measurements to the correct or accepted value
Closeness of a set of measurements of the same quantity made in the same way

Accepted Value = 55 km/h

Problems with Accuracy are Due to Error

Experimental work is never free of error
Important to minimize as much as possible
Should never have human error
Mistake in reading measurement
Mistake in recording results
Method should always be the same
Same instrument
Check calculations

Precision of Instrument

Poor accuracy can be corrected
Precision based on the instrument
Instruments can only be so precise

Precise to the .1

Estimate the last place

Significant Figures

Measurement that consists of all known digits with an uncertain digit at the end
Uncertain digit
The digit that you as the experimenter must estimate
All digits are significant, but not necessarily certain
Insignificant digits are never reported
YOU WILL ALWAYS NEED TO USE SIGNIFICANT FIGURES!!!!!

Sig Fig Rules

Sample Problems

How many significant figures?
Always round to significant figures
If adding 2 numbers with 3 significant figures each
Answer will have 3 significant figures
Use normal rounding
5 and up – round up
4 and down – stay the same

Sig Fig Math

Adding and Subtracting
Answer must have the same number of digits to the right of the decimal point as there are in the measurement having the fewest digits to the right of the decimal point.
2.59 + 6.8974 = 9.49
Multiplying and Dividing
Answer can have no more significant figures than are in the measurement with the fewest number of significant figures.
3.05/8.47 = .360

Practice Problems

5.44m – 2.6103m =
2.4g/mL x 15.82 mL =

Conversion Factors and Sig Figs

Because a measurement is considered exact, after conversion there is no rounding

Section 1.3 The Language of Physics

Interpret data in tables and graphs, and recognize equations that summarize data
Distinguish between conventions for abbreviating units and quantities
Use dimensional analysis to check the validity of expressions
Perform order of magnitude calculations

Mathematics and Physics

Tools are used to summarize and analyze data and observations
Often times mathematical relationships
In forms of charts and graphs
Provides a visual of time versus distance
Can determine distance traveled at any time
Through this equation

(change in position m) = 4.9 x (time of fall s) 2

How far would the ball have fallen at .500 s?

Equations Indicate Relationships

Equations show how two or more variables are related
Many equations do not have numbers
But symbols representing physical constants
Δ means difference or change in
Usually final minus initial
Units should help with equations
Units must cancel correctly
Want the units that match your answer
If finding velocity should end with units of m/s

Units or Variables?

Variables are usually boldface
Stand for a measurement with specific units
Always check the context of the problem
Find the mass of something
Mass is variable m, units would be g or kg
Examples of Variables
Δx, Δy, Δt, c, m, a, v
Examples of Units
m, kg, m/s, m/s 2 , s
Use to check validity of equations
A car is moving at a speed of 88 km/h and has traveled 725 km, how long did this trip take?

If you're seeing this message, it means we're having trouble loading external resources on our website.

If you're behind a web filter, please make sure that the domains *.kastatic.org and *.kasandbox.org are unblocked.

To log in and use all the features of Khan Academy, please enable JavaScript in your browser.

Physics library

Unit 1: one-dimensional motion, unit 2: two-dimensional motion, unit 3: forces and newton's laws of motion, unit 4: centripetal force and gravitation, unit 5: work and energy, unit 6: impacts and linear momentum, unit 7: torque and angular momentum, unit 8: oscillations and mechanical waves, unit 9: fluids, unit 10: thermodynamics, unit 11: electric charge, field, and potential, unit 12: circuits, unit 13: magnetic forces, magnetic fields, and faraday's law, unit 14: electromagnetic waves and interference, unit 15: geometric optics, unit 16: special relativity, unit 17: quantum physics, unit 18: discoveries and projects, unit 19: review for ap physics 1 exam.

Home / Free Education Presentation templates / Free Physics PowerPoint Template and Google Slides

Free Physics PowerPoint Template and Google Slides

About the Template

To understand how the world works as it does, then Physics lessons can give you the answers. To make your understanding easy and lessons creative, here we have free Physics PowerPoint template and Google slides . With this amazing Physics ppt template, we guarantee you create a presentation that looks appealing and conveys necessary information precisely to your students.

Learning Physics isn’t interesting for everyone; for some, it can be a joyous experience. If you want a template to illustrate Physics or Science related information, try using these creative Physics designs.

The template has cool icons and illustrations, which makes the template look super-stunning. This Physics deck template includes 18 slides with a dark background that includes formulas and laws to focus on the topic at all times. With this interactive design, your audience will feel very comfortable learning the lessons as it includes wholly well-designed and eye-catching elements. Moreover, students can use these Physics backgrounds as Physics project front page design. So, what are you waiting for? Be confident, make the most of this cool template, and inspire your kids to love Physics.

Isn’t it what you looking for? Then check out our free education template gallery for more.

Features of this template:

Super-easy to customize
18 Unique designs
Dark background with lots of cliparts, icons, and illustrations which makes the template look creative
Compatible with Microsoft PowerPoint and Google Slides
16:9 widescreen perfect for all popular screens.

Google Slide,PowerPoint

100% Fully Customizable

Free to use

Free Active Template Library

Illustration

Free Physics Background for PowerPoint & Google Slides

Free Google Slides History Template PowerPoint

Free Science Background PowerPoint & Google Slides

Slidescarnival Presentation PowerPoint and Google Slides Template

Cover image including amazing Maths background images

Free Google Slides Maths Background & PowerPoint Template

Are you looking for custom presentation template designs.

It is a long established fact that a reader will be distracted by the readable content of a page when or randomised words which don’t look even slightly believable

Got any suggestions?

We want to hear from you! Send us a message and help improve Slidesgo

first day of school

69 templates

18 templates

48 templates

6 templates

great barrier reef

17 templates

Newton's Laws Infographics

It seems that you like this template, free google slides theme, powerpoint template, and canva presentation template.

Newton was a scientist that changed the history of physics. He came up with three laws that could describe how the objects around us move and interact with each other, and they’re super easy to understand, as long as you use visual representations of the forces. This template offers exactly that! It is completely editable, so just like the third law says: if you apply a force into this template (your creativity) the template will give you an equal force back (an amazing slide!). Teach your students the basics of physics with this amazing set of infographics!

Features of these infographics

100% editable and easy to modify
31 different infographics to boost your presentations
Include icons and Flaticon’s extension for further customization
Designed to be used in Google Slides, Canva, and Microsoft PowerPoint and Keynote
16:9 widescreen format suitable for all types of screens
Include information about how to edit and customize your infographics

How can I use the infographics?

Am I free to use the templates?

How to attribute the infographics?

Attribution required If you are a free user, you must attribute Slidesgo by keeping the slide where the credits appear. How to attribute?

How to Add, Duplicate, Move, Delete or Hide Slides in Google Slides

How to Change Layouts in PowerPoint

How to Change the Slide Size in Google Slides

Premium template

Unlock this template and gain unlimited access

Pastel Law School Center Theme Infographics presentation template

Slidesgo.net is an independent website that offers free powerpoint templates and is not part of Freepik/any particular brand. Read the privacy policies

physics Powerpoint templates and Google Slides themes

Discover the best physics PowerPoint templates and Google Slides themes that you can use in your presentations.

Capsule With Money-Medical PPT Templates

3d atom model powerpoint templates, slidesgo categories.

Abstract 13 templates
Agency 15 templates
All Diagrams 1331 templates
Brand Guidelines 3 templates
Business 195 templates
Computer 66 templates
Education 97 templates
Finance 54 templates
Food 57 templates
Formal 60 templates
Fun 6 templates
Industry 91 templates
Lesson 67 templates
Marketing 57 templates
Marketing Plan 19 templates
Medical 71 templates
Military 21 templates
Nature 119 templates
Newsletter 5 templates
Real Estate 46 templates
Recreation 53 templates
Religion 30 templates
School 557 templates
Simple 5 templates
Social Media 8 templates
Sports 46 templates
Travel 26 templates
Workshop 4 templates

Slidesgo templates have all the elements you need to effectively communicate your message and impress your audience.

Suitable for PowerPoint and Google Slides

Download your presentation as a PowerPoint template or use it online as a Google Slides theme. 100% free, no registration or download limits.

Want to know more?

Frequently Asked Questions
Google Slides Help
PowerPoint help
Who makes Slidesgo?

Home PowerPoint Templates Physics

The templates of Physics are eye-catching layouts of scientific experiments and theories. These Physics PowerPoint Templates are suitable for academic purposes. Because the slides show a colorful illustration of chemical reactions are components that can simulation-based learning and teaching. The PowerPoint templates of Physics also useful for presenting multiple categories of natural science. These may include time & relativity, quantum mechanics wave motions, etc. Here, PowerPoint shapes present global metaphors for scientific tools such as lab equipment and convergence models. The editable presentations of science and physics can change colors from solid fill and theme options.

Sunlight Moon Phases PowerPoint Template

Atom Globe Concept PowerPoint Template

Rocket Boosters Trajectory PowerPoint Shapes

Convergence Metaphor Slides PowerPoint Templates

Global Education PowerPoint Template

Test Tube Shapes for PowerPoint

Chemical Industry Shapes for PowerPoint

Back To School PowerPoint Template

Atom Shapes for PowerPoint

Dark Brainstorming PowerPoint Template

Brainstorming PowerPoint Template

Wave Curves for PowerPoint

Download unlimited content, our annual unlimited plan let you download unlimited content from slidemodel. save hours of manual work and use awesome slide designs in your next presentation..

Browse Course Material

Course info.

Prof. Markus Klute

Departments

As taught in.

Nuclear Physics
Particle Physics

Learning Resource Types

Introduction to nuclear and particle physics, lecture slides.

You are leaving MIT OpenCourseWare

TPC and eLearning
What's NEW at TPC?
Read Watch Interact
Practice Review Test
Teacher-Tools
Subscription Selection
Seat Calculator
Ad Free Account
Edit Profile Settings
Classes (Version 2)
Student Progress Edit
Task Properties
Export Student Progress
Task, Activities, and Scores
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?
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
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
Tasks and Classes
Tasks - Classic
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
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
Task Tracker Directions
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
Algebra Based Physics
Other Tools
Frequently Asked Questions
Purchasing the Download
Purchasing the CD
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
Classes (Legacy Version)
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

The Physics Classroom's Teacher Presentation Pack

Content and Topics || Frequently-Asked Questions || Purchase Page

Mr. Wright's Classroom Resources

Grades, attendance, calendar, and other useful school related resources are at FACTS .

Are you not my student and have these helped you?

Physics Powerpoints

As .pptx (powerpoint 2010) files, as .pdf files.

Visit my favorite educational institutions

How to Make Your Physics Presentation?

Table of Contents

Creating a compelling physics presentation involves careful planning, research, and effective communication of complex concepts in a clear and engaging manner. Here are some steps to help you make your physics presentation:

Choose a Topic: Select a physics topic that interests you and aligns with your audience’s level of understanding. Consider the relevance and significance of the topic and its potential to engage and educate your audience.
Conduct Research: Research thoroughly using trusted sources like textbooks, scientific journals, and reputable websites to grasp the topic’s key concepts.
Develop an Outline: Organize your presentation into logical sections or themes. Use the outline provided earlier as a template, adapting it to suit your chosen topic and presentation format.
Create Visual Aids: Prepare visual aids such as slides, diagrams, and animations to complement your presentation. Use clear and concise graphics to illustrate complex concepts and enhance audience comprehension.
Craft a Clear Narrative: Structure your presentation with a clear beginning, middle, and end. Start with an attention-grabbing introduction to introduce the topic and establish its relevance. Present the main content in a logical sequence, highlighting key points and supporting evidence. Conclude with a summary of key takeaways and implications.
Practice Delivery: Rehearse your presentation multiple times to familiarize yourself with the content and refine your delivery. Pay attention to pacing, clarity, and nonverbal communication cues such as posture and gestures.
Engage Your Audience: Encourage active participation and interaction by asking questions, soliciting feedback, and incorporating interactive elements such as demonstrations or group activities. Tailor your presentation to the interests and background knowledge of your audience to keep them engaged and attentive.
Anticipate Questions: Prepare for potential questions from your audience by anticipating areas of confusion or ambiguity in your presentation. Be ready to provide clarifications, examples, or references to further resources to address any inquiries.
Seek Feedback: Solicit feedback from peers, mentors, or colleagues to gain valuable insights into areas for improvement. Consider their suggestions and incorporate constructive criticism to enhance the effectiveness of your presentation.
Reflect and Iterate: After delivering your presentation, take time to reflect on your performance and the audience’s response. Identify strengths and weaknesses, and consider how you can refine your approach for future presentations.

By following these steps and applying careful planning and preparation, you can create a compelling physics presentation that effectively communicates complex concepts and engages your audience in the wonders of the natural world.

Tips to Fellow to Make Physics Presentation Successful

Making a physics presentation successful requires careful planning, effective communication, and engaging presentation skills. Here are some tips to help your fellow make their physics presentation successful:

Know Your Audience: Understand the background knowledge and interests of your audience to tailor your presentation accordingly. Adjust the level of technical detail and terminology to ensure clarity and engagement.
Define Clear Objectives: Clearly define the objectives of your presentation, outlining what you aim to achieve and the key points you intend to convey. This will help you stay focused and ensure that your presentation delivers a coherent message.
Organize Your Content: Structure your presentation in a logical manner, with a clear introduction, main body, and conclusion. Use headings, subheadings, and bullet points to organize your content and guide the audience through your presentation.
Use Visual Aids Wisely: Incorporate visual aids such as slides, diagrams, and animations to enhance understanding and retention of key concepts. Keep visual elements clear, concise, and relevant to the content of your presentation.
Practice Delivery: Rehearse your presentation multiple times to familiarize yourself with the content and refine your delivery. Pay attention to pacing, tone of voice, and body language to ensure confident and engaging presentation delivery.
Engage Your Audience: Encourage active participation and interaction by asking questions, soliciting feedback, and incorporating interactive elements such as demonstrations or group activities. Engage with your audience to maintain their interest and attention throughout your presentation.
Clarify Complex Concepts: Break down complex concepts into simpler, more understandable terms, using analogies, examples, and real-world applications to illustrate key points. Clarify any technical jargon or terminology to ensure that all audience members can follow along.
Be Prepared for Questions: Anticipate questions from your audience and prepare thoughtful responses in advance. Be open to feedback and willing to address any uncertainties or misconceptions that may arise during the Q&A session.
Demonstrate Enthusiasm: Convey your passion and enthusiasm for the subject matter through your presentation delivery. Demonstrate genuine interest and excitement in sharing your knowledge with your audience, inspiring curiosity and engagement.
Seek Feedback: After delivering your presentation, solicit feedback from your audience and peers to gain valuable insights into areas for improvement. Reflect on their input and incorporate constructive criticism to enhance the effectiveness of your future presentations.

Physics is fascinating! It’s like a colorful quilt filled with amazing ideas and things that make us wonder about the universe. Whether we’re talking about basic stuff like how things move or super cool things like quantum mechanics, physics presentations help us understand how the world works. They show us the important rules that make everything tick, from tiny atoms to huge galaxies.

By learning about physics, we can see how clever humans are in figuring out nature’s secrets and using them to make awesome technology. It’s like unlocking a treasure chest full of wonders and surprises!

Step by Step Guide on The Best Way to Finance Car

The Best Way on How to Get Fund For Business to Grow it Efficiently

The World of Teaching

Free Teacher resources including over 1000 Powerpoint presentations

Physics powerpoint presentations Free to download

Physics powerpoint presentations free to download and use for teaching.

Using PowerPoint for teaching physics can be an effective way to engage your students and present complex concepts visually. Here are some tips on how to use PowerPoint effectively for teaching physics:

Start with an outline: Plan your presentation by creating an outline that outlines the main topics and subtopics you want to cover. This will help you organize your content and ensure a logical flow.

Use visuals: Physics often involves abstract concepts that can be challenging for students to grasp. Incorporate relevant visuals such as diagrams, graphs, images, or videos to make the concepts more tangible and easier to understand.

Simplify complex ideas: Break down complex physics concepts into smaller, more digestible pieces. Use step-by-step explanations and visual representations to help students follow along and grasp the core principles.

Use animations and transitions: PowerPoint offers animation and transition features that can be used to demonstrate processes or show how variables change over time. For example, you can use animations to illustrate the motion of objects or the behavior of waves

Below are a list of physics powerpoint presentations.

These have been submitted by teachers to help other teachers. They can be used freely and modified to your own preferred format.

Physics powerpoint presentations- Please submit any powerpoints you have made at the bottom of this page

Please submit any of your own physics powerpoints using the form below. It is very much appreciated.

Your Name (required)

Your Email (required)

Your Message

Other hints and tips for making physics powerpoint presentations

Incorporate real-world examples: Relate physics concepts to real-life examples and applications. Show how these concepts are used in everyday situations or in specific fields like engineering or astronomy. This can help students connect theory to practical applications.

Encourage active learning: Design interactive slides that encourage student participation. Include questions, quizzes, or problem-solving activities within your presentation. This promotes active engagement and helps students apply their knowledge.

Provide clear explanations: Use concise and clear explanations to convey information. Break down complex equations or formulas into smaller parts and explain each component separately. Use bullet points, charts, or diagrams to support your explanations.

Include practice problems: Dedicate slides to practice problems that allow students to apply the concepts they have learned. Walk them through the problem-solving process step by step and provide explanations for each step.

Allow for discussion and questions: Allocate time for students to ask questions or engage in discussions related to the presented material. Encourage active participation and create a supportive learning environment.

Keep it visually appealing: Use a consistent and visually appealing design throughout your presentation. Choose an appropriate font, color scheme, and layout that is easy to read and visually appealing. Avoid cluttered slides that may distract or confuse students.

Use multimedia elements: Consider incorporating videos, simulations, or interactive online resources to enhance student understanding and engagement. These can provide visual demonstrations or virtual experiments that supplement your teaching.

Review and summarize: End your presentation with a summary slide that recaps the main points covered. Reinforce key concepts and encourage students to review the material on their own.

Remember to adapt your presentation style to suit the needs of your students and adjust the pace of your presentation accordingly. Be prepared to answer questions and provide further clarification as needed.

200 Interesting Physics Seminar and Powerpoint Presentation Topics

interesting topics for powerpoint presentation physics

Interesting topics for Powerpoint Presentation in Physics

Special Relativity and General Relativity
Quantum Computing
Time dilation
Physics of Babies
Nikola Tesla Inventions ( PPT2 )
Greatest Physicists and their contribution
Physics-Chemistry-Biology Relation
Physics in Sports Link 2
Physics in our everyday life
Newtonian and Non-newtonian fluid
Anti-Gravity
Thermodynamics in Everyday Life
Airborne Wind Energy / Flying Windmills
Pumped-storage hydroelectricity
Compressed air energy storage ( PDF )
Magnetoresistance
Fusion Power Generation
Fluid Flow Continuity and Bernoulli’s Equation
Archimedes' Principle and Its Applications
Physics of Touch Screens Technology ( Article )
Exoplanets / Extra-Solar Planets
Space Telescopes ( Hubble / James Webb Space Telescope )
Carbon Nanotubes
The Physics of the Egyptian Pyramids
Magnus effect and its applications
Sustainable energy ( PPT 2 )
The Physics of Fire ( PPT )
The Motion of the Planets
Artificial Intelligence (AI) in Our Everyday Life
The String theory: A theory of Everything
Electromagnetism and Its applications in daily life
Electromagnetic Induction
Electromagnetic Spectrum / Electromagnetic Radiation
Transformers
Force sensor
Friction in our everyday life and Its types ( PPT 2 ) ( PDF )
Magnetorheological fluid
Magnetic field due to currents in wires ( PPT 2 )
Magnetic field patterns
Earth's Magnetic Field
Searching for Magnetic Monopoles
Electricity and Magnetism
Maglev Trains: Transrapid magnetic lift trains
Magnetic Levitation
Microwave Oven: How it works? ( PDF Report )
Physics Behind the Climate Change ( PDF Report )
Electromagnets and their uses
Fresnel's Equations
Electric Potential
Working of Motors
Working of Generators
Bioelectromagnetism
Kinematics in our daily lives
Real-Life Examples of Newton’s First Law (Inertia)
Zero Energy Buildings
Lightning Bolt Physics
Lightning Protection System (Static Electricity)
Electromagnetic Railguns
Physics behind fidget spinner
Hoverboard (Self-balancing scooter)
Physics of roller coasters
Physics behind musical instruments
Physics Behind Bruce Lee's One-Inch Punch!
Electric Cars
Working with simple electrical components
Current and charge
Ohm's law and resistance
Oscilloscope
String theory
Resistance effects
Electrical conduction through gases
Electrostatic charges
Van de Graaff generator
Energy conversion
Components of motion
Circular motion
Weightlessness
Forced vibrations and resonance
Momentum in two dimensions
Simple harmonic motion
Fiction and Its types
Friction at the atomic level
Coulomb model
Superfluidity
Transmission Lines
Peso Electricity
Atmospheric Optics
Wireless Electricity
Models of electric circuits
Wind Energy
Solar Power
Geothermal Energy
Wave Energy
Concentrated Solar Energy
Nuclear Power Generation
Physics behind the Aurora Borealis
Plasma Physics
Particle Detectors, Drift Chambers
Exponential decay and half-life
Nuclear Fission
Nuclear Fusion
Biogas Plant
Biomass Energy
First models of the atom
Cloud chambers
Particle Accelerators
Synchrotron
Model of the atom
Light behaving like a particle
Electrons behaving as waves
Evidence for the hollow atom
Nature of ionizing radiations
Radioactive sources: isotopes and availability
Acceleration due to gravity
Radio Waves
Antenna Theory and Design
How do Mobile networks work?
Solar System
Asteroid Belt Formation
Satellite Communication
Possibility of life on Mars
Mangalyaan (India's Mars Mission)
Chandrayaan-I (India's Lunar Mission)
Rocket Technology
Satellite Launch Vehicles
SpaceX: Falcon Heavy
Reusable Rockets
Space Organisations and their achievements
Global Navigation Satellite System
Gravitational force and free fall
Radar Technologies
Newtonian fluid
Pinhole camera and lens camera
Diffraction of light
Reflection of light
Refraction of light
Radio Telescope
Formation of Galaxies
Hubble's Law (Evidence)
Gravity waves
Kepler’s laws
The Copernican revolution
Magnetic sail
Planetary motion and gravity
Big Bang (The Origin)
Beyond Solar System
Constellations
Life on Mars
Mars Exploration
Why is Venus So Hot?
Trans-Neptunian region
Space-Time Fabric
Journey of Photons
Atmospheric pressure
Einstein's Theory of Relativity
How do airplanes fly?
Aerodynamics
Types of waves
Young's slits
Superconductivity
LED | OLED | MicroLED
Thermal radiation from the human body
Thermal expansion of Solid and Liquid
Concept of density
Evidence for atoms
Molecular speed
Higgs boson
Chandrashekar limit
Nuclear Reactors
Large Hadron Collider
Quantum Mechanics (Introduction)
Young's double-slit experiment
Doppler effect in Sound
Doppler effect in Light
Integrated Circuits
Microprocessors
Display Technology
3D Printing
Virtual Reality
Biosensors and Bioelectronics
Ambient intelligence
Storage Devices
Semiconductors
Fiber-optic communication
Three Phase Circuit
Home's electrical system
Types of Gear and working
Electric Bill Calculation
Impulse, Momentum, and Collisions
Dark Energy (Quantum Vacuum Energy)
Dark Matter
Acoustic Levitator
Electrometer
Hydroelectricity
Optical instruments

Interesting Questions for Physics Powerpoint Presentation Ideas

Why do things move?
Does everything that goes up come down?
Why does a bicycle stay upright when it's moving but fall when it stops?
Why do we wear seatbelts?
Why doesn’t the moon fall into the earth?
Why is it tough to walk on ice?
Why does ice melt?
Why doesn’t the moon fall?
What is sound?
What is light?
What is lightning?
What makes rainbows?
How can a boat make of steel float?
Why can’t we see air, how do we know that it's there?
Why are some turns on roads banked?
What keeps me from falling on the Silly Silo at Adventureland?
Why do my socks sometimes stick together in the clothes dryer?
Why do I get a shock after I walk across the carpet room and touch something in winter?
What’s the deal with magnets? Why do they stick on refrigerators?
By the way, how do refrigerators and air conditioners work?
Why can’t I cool my room by keeping the refrigerator door opened?
Why is it a bad idea to plug my TV, stereo, computer, radio, and hairdryer into the same outlet?
Where does electricity come from?
Why doesn’t the electricity leak out of the outlet?
What do airplanes and curveballs have in common?
Why do my ears pop when I’m on a plane?
Why can I see all of myself in a mirror that is half as tall as I am?
what is the Greenhouse effect?
what’s the deal with the ozone layer?
Is climate change real? Are we causing it?
How do(es) x-rays, microwaves, ultrasound, MRIs, LASERS, and cable TV work.?
By the way, how does TV work?
Why does the water in my tub spin in a circle as it goes down the drain? Why does it always spin in the same direction?
How does soap work?
Why is the sky blue during the day but red at sunset?
Are nuclear power plants safe?
How do they take my temperature by sticking that gadget into my ear?
Why does the cue ball stop dead when it hits another ball head-on?
What is a day, month, or year?
Why does a year on Jupiter last 12 years?
Are hydrogen fuel cells or hybrid cars the answer to the energy crisis?
What does it take to make an atomic bomb?

Incoming Searches:

Like on Facebook
Follow on Twitter
Follow on Slideshare
Follow on Pinterest
Subscribe on Youtube

Recent Seminar Topics

Seminar topics.

💻 Seminar Topics for CSE Computer Science Engineering
⚙️ Seminar Topics for Mechanical Engineering ME
📡 Seminar Topics for ECE Electronics and Communication
⚡️ Seminar Topics for Electrical Engineering EEE
👷🏻 Seminar Topics for Civil Engineering
🏭 Seminar Topics for Production Engineering
💡 Physics Seminar Topics
🌎 Seminar Topics for Environment
⚗️ Chemistry Seminar Topics
📈 Business Seminar Topics
👦🏻 Seminar Topics for Youth

Investigatory Projects Topics

👨🏻‍🔬 Chemistry Investigatory Projects Topics
📧 Contact Us For Seminar Topics
👉🏼Follow us in Slideshare

Presentation Topics

🌍 Environment Related Presentation Topics
⚗️ Inorganic Chemistry Presentation Topics
👨🏻‍🎓 General Presentation Topics
🦚 Hindi Presentation Topics
🪐 Physics Presentation Topics
🧪 Chemistry: Interesting Presentation Topics
🌿 Biology Presentation Topics
🧬 Organic Chemistry Presentation Topics

Speech Topics and Ideas

🦁 Informative and Persuasive Speech Topics on Animals
🚗 Informative and Persuasive Speech Topics on Automotives
💡 Ideas to Choose Right Informative Speech
👩🏻‍🎓 Informative Speech Topics For College Students
🔬 Informative Speech Topics on Science and Technology

My presentations

Auth with social network:

Download presentation

We think you have liked this presentation. If you wish to download it, please recommend it to your friends in any social system. Share buttons are a little bit lower. Thank you!

Presentation is loading. Please wait.

Physics 11 Dynamics By: Bryon Long.

Published by Darren Manning Modified over 6 years ago

Presentation on theme: "Physics 11 Dynamics By: Bryon Long."— Presentation transcript:

- Newton’s First and Second Laws - Gravity 3 - Newton’s Third Law

Newton’s Laws of Motion

Motion Notes Speed Momentum Acceleration and Force Friction and Air Resistance Newton’s Laws of Motion.

Aim: What is the law of conservation of momentum? Do Now: A 20 kg object traveling at 20 m/s stops in 6 s. What is the change in momentum? Δp = mΔv Δp.

Newton’s Laws.

Friction Gravity Newton’s Laws Momentum Forces.

Momentum and Collisions

Force A push or pull exerted on an object..

Forces and the Laws of Motion

Chapter 4 Dynamics: Newton’s Laws of Motion

Resistance of an object to a change in its motion inertia.

Forces & Newton’s Laws Ch. 4. Forces What is a force? –Push or pull one body exerts on another –Units = Newton (N) –Examples: List all of the forces that.

What is a Force? A force is a push or a pull causing a change in velocity or causing deformation.

Newton’s Laws of Motion 1 st - Inertia. 2 nd - F = ma 3 rd - Action/Reaction Take notes when see.

Sir Isaac Newton Newton’s Laws of Motion Newton’s 1st Law of Motion -An object at rest, will remain at rest, unless acted upon by an unbalanced.

Laws of Motion Forces: chapter st Law An object at rest remains at rest and an object in motion maintains its velocity unless it experiences an.

Chapters 5-6 Test Review Forces & Motion Forces  “a push or a pull”  A force can start an object in motion or change the motion of an object.  A force.

Newton’s Laws of Motion. Newton’s First Law  The Law of Inertia  Inertia- the tendency of an object to resist a change in motion.  An object at rest.

Energy Momentum, Collisions, Impulse. Momentum A measure of how hard it is to stop a moving object A measure of how hard it is to stop a moving object.

Forces, The laws of Motion & Momentum.

About project

Meet and Connect

Featured events

DAMOP Annual Meeting

Attend to explore the latest atomic, molecular, and optical physics research in Fort Worth or virtually.

Gaseous Electronics Conference

The Gaseous Electronics Conference takes place Sept. 30 – Oct. 4 in San Diego.

DPP Annual Meeting

The 66th Annual Meeting of the APS Division of Plasma Physics takes place Oct. 7–11, 2024 in Atlanta.

Meetings and events calendar

Watch on demand.

March Meeting On-Demand

Revisit your favorite presentations, explore new physics research, and more through our on-demand content from March Meeting.

Space image from James Webb Space Telescope

April Meeting On-Demand

Revisit your favorite presentations, explore new physics research, and more through our on-demand content from April Meeting

Webinar Library

Get involved, advance your career, and explore important topics for the physics community.

Event resources

Meeting Logistics

Prepare for APS and unit meetings by reviewing the instructions and logistics for presenters, session chairs, and attendees.

Travel and Visa Guidance

APS provides general visa and related information for physicists traveling internationally to attend scientific meetings and other events.

Travel Grants and Lectureships

APS fosters international collaborations and research sharing across the global physics community.

Mobile App for APS Meetings

Download the APS Physics Meetings & Events app to stay up-to-date at our in-person meetings.

Event policies and guidelines

Code of conduct for aps meetings.

APS's code of conduct for meetings is derived from our Ethics Guidelines.

Abstract Submission Policies

Share your research with the physics community at APS meetings and events.

Meetings Price Accessibility for Less-Resourced Countries

APS offers pricing to remove barriers to attendance for scientists in lower-income countries.

Session Chair Guidelines

The session chair guidelines ensure that chairs are prepared before and during the meeting to oversee a successful session.

Speaker and Abstract Guidelines

APS members may be invited to present one scientific abstract per APS March or April meeting.

Ethics Guidelines

Physicists wield the power of truth and compassion in the global pursuit of knowledge. Ethics guide our journey, shaping the integrity of our profession.

Americans with Disabilities Act (ADA) Policy

We look forward to welcoming you at APS meetings and ensuring your needs are met.

COVID-19 and Related Health and Safety Guidelines

APS is focused on ensuring safe and productive meetings for all participants.

If you have questions or concerns related to APS meetings and events, please reach out to one of the following:

The APS Meetings team for general inquiries
The Abstract Help Line for assistance submitting your abstract to present research at an APS meeting
The APS Registrar for help registering to attend a meeting

Funding and Recognition

APS honors exceptional contributions to the physics community, including travel support for students and early career physicists.

Committee on Scientific Meetings

The Committee on Scientific Meetings proposes and the Council adopts guidelines and rules for the operation of all Meetings of the Society.

Find other physicists in your region and specialty.

Join your Society

If you embrace scientific discovery, truth and integrity, partnership, inclusion, and lifelong curiosity, this is your professional home.

Braid Group Action and Quasi-Split Affine \(\imath \) Quantum Groups II: Higher Rank

Published: 28 May 2024
Volume 405 , article number 142 , ( 2024 )

Cite this article

Ming Lu 1 ,
Weiqiang Wang 2 &
Weinan Zhang 3

23 Accesses

Explore all metrics

This paper studies quantum symmetric pairs \((\widetilde{\textbf{U}}, \widetilde{{\textbf{U}}}^\imath )\) associated with quasi-split Satake diagrams of affine type \(A_{2r-1}, D_r, E_{6}\) with a nontrivial diagram involution fixing the affine simple node. Various real and imaginary root vectors for the universal \(\imath \) quantum groups \(\widetilde{{\textbf{U}}}^\imath \) are constructed with the help of the relative braid group action, and they are used to construct affine rank one subalgebras of \(\widetilde{{\textbf{U}}}^\imath \) . We then establish relations among real and imaginary root vectors in different affine rank one subalgebras and use them to give a Drinfeld type presentation of \(\widetilde{{\textbf{U}}}^\imath \) .

This is a preview of subscription content, log in via an institution to check access.

Access this article

Price includes VAT (Russian Federation)

Instant access to the full article PDF.

Rent this article via DeepDyve

Institutional subscriptions

We’re sorry, something doesn't seem to be working properly.

Please try refreshing the page. If that doesn't work, please contact support so we can address the problem.

Baseilhac, P., Belliard, S.: Generalized \(q\) -Onsager algebras and boundary affine Toda field theories. Lett. Math. Phys. 93 , 213–228 (2010)

Article ADS MathSciNet Google Scholar

Baseilhac, P., Kolb, S.: Braid group action and root vectors for the \(q\) -Onsager algebra. Transform. Groups 25 , 363–389 (2020)

Article MathSciNet Google Scholar

Beck, J.: Braid group actions and quantum affine algebras. Commun. Math. Phys. 165 , 555–568 (1994)

Chen, X., Lu, M., Wang, W.: A Serre presentation for the \(\imath \) quantum groups. Transform. Groups 26 , 827–857 (2021)

Chari, V., Pressley, A.: Quantum affine algebras. Comm. Math. Phys. 142 , 261–283 (1991)

Damiani, I.: A basis of type Poincaré–Birkhoff–Witt for the quantum algebra of \(\widehat{sl}(2)\) . J. Algebra 161 , 291–310 (1993)

Damiani, I.: Drinfeld realization of affine quantum algebras: the relations. Publ. Res. Inst. Math. Sci. 48 , 661–733 (2012)

Damiani, I.: From the Drinfeld realization to the Drinfeld–Jimbo presentation of affine quantum algebras: injectivity. Publ. Res. Inst. Math. Sci. 51 , 131–171 (2015)

Dobson, L., Kolb, S.: Factorisation of quasi K-matrices for quantum symmetric pairs. Selecta Math. 25 , 1–55 (2019)

Drinfeld, V.: Quantum groups. In: Proceedings of the International Congress of Mathematicians, pp. 798–820. Amer. Math. Soc., Providence, RI, Berkeley, Calif., 1986 (1987)

Drinfeld, V.: A new realization of Yangians and quantized affine algebras. Soviet Math. Dokl. 36 , 212–216 (1988)

MathSciNet Google Scholar

Enriquez, B., Khoroshkin, S., Pakuliak, S.: Weight functions and Drinfeld currents. Comm. Math. Phys. 276 , 691–725 (2007)

Jimbo, M.: A \(q\) -difference analogue of \(U(\mathfrak{g} )\) and the Yang-Baxter equation. Lett. Math. Phys. 10 , 63–69 (1985)

Kac, V.G.: Infinite Dimensional Lie Algebras, 3rd edn. Cambridge University Press, Cambridge (1990)

Kolb, S.: Quantum symmetric Kac–Moody pairs. Adv. Math. 267 , 395–469 (2014)

Kolb, S., Pellegrini, J.: Braid group actions on coideal subalgebras of quantized enveloping algebras. J. Algebra 336 , 395–416 (2011)

Letzter, G.: Coideal subalgebras and quantum symmetric pairs, New directions in Hopf algebras, vol. 43, pp. 117–166. MSRI Publications, Cambridge Univeristy Press, Cambridge (2002)

Lu, M., Wang, W.: Hall algebras and quantum symmetric pairs II: reflection functors. Commun. Math. Phys. 381 , 799–855 (2021)

Lu, M., Wang, W.: A Drinfeld type presentation of affine \(\imath \) quantum groups I: split ADE type. Adv. Math. 393 , 108111 (2021)

Lu, M., Wang, W.: Hall algebras and quantum symmetric pairs I: foundations. Proc. London Math. Soc. (3) 124 , 1–82 (2022)

Lu, M., Wang, W.: Braid group symmetries on quasi-split \(\imath \) quantum groups via \(\imath \) Hall algebras. Selecta Math. 28 , 84 (2022)

Lu, M., Wang, W., Zhang, W.: Braid group action and quasi-split affine \(\imath \) quantum groups I. Represent. Theory 27 , 1000–1040 (2023)

Lusztig, G.: Affine Hecke algebras and their graded version. J. Amer. Math. Soc. 2 , 599–625 (1989)

Lusztig, G.: Introduction to Quantum Groups. Reprint of the Modern Birkhäuser Classics, 1993rd edn. Birkhäuser, Boston (2010)

Book Google Scholar

Lusztig, G.: Hecke algebras with unequal parameters, CRM Monograph Series 18 , Amer. Math. Soc., Providence, RI, 2003; for an enhanced version, see arXiv:math/0208154

Sklyanin, E.: Boundary conditions for integrable quantum systems. J. Phys. A 21 (2375), 2375–2389 (1988)

Wang, W., Zhang, W.: An intrinsic approach to relative braid group symmetries on \(\imath \) quantum groups. Proc. London Math. Soc. 127 , 1338–1423 (2023)

Wang, W., Zhang, W.: Relative braid group action on modules over \(\imath \) quantum groups: rank one formulas, in preparation, 2024

Zhang, W.: A Drinfeld-type presentation of affine \(\imath \) quantum groups II: split BCFG type. Lett. Math. Phys. 112 , 89 (2022)

Zhang, W.: Relative braid group symmetries on \(\imath \) quantum groups of Kac–Moody type. Selecta Math. 29 , 59 (2023)

Download references

We thank the referees for very helpful comments and suggestions which improve the exposition of the paper. M.L. is partially supported by the National Natural Science Foundation of China (No. 12171333, 1226113149). W.W. and W.Z. are partially supported by the NSF grant DMS-2001351.

Author information

Authors and affiliations.

Department of Mathematics, Sichuan University, Chengdu, 610064, People’s Republic of China

Department of Mathematics, University of Virginia, Charlottesville, VA, 22904, USA

Weiqiang Wang

Department of Mathematics and New Cornerstone Science Laboratory, The University of Hong Kong, Hong Kong SAR, People’s Republic of China

Weinan Zhang

You can also search for this author in PubMed Google Scholar

Corresponding author

Correspondence to Weiqiang Wang .

Ethics declarations

Conflict of interest.

The authors have no Conflict of interest to declare that are relevant to the content of this article. The authors declare that the data supporting the findings of this study are available within the paper.

Additional information

Communicated by E. Smith

Dedicated to Vyjayanthi Chari for her 65th birthday with admiration.

Publisher's Note

Springer Nature remains neutral with regard to jurisdictional claims in published maps and institutional affiliations.

Proofs of Lemmas 3.2 and 3.6

In this appendix, we provide the detailed proofs for Lemma 3.2 and Lemma 3.6 .

1.1 Proof of Lemma 3.2

For convenience we recall Lemma 3.2 states that, for \(\tau i =i\in \mathbb {I}_0\) , we have

Let us verify the identity ( A.1 ).

We first recall several ingredients from [ WZ23 ], which will be used in the proof. Let \(\widetilde{\mathscr {T}}_i\) and \(\widetilde{\mathscr {T}}_w\) be the (rescaled) Lusztig braid group symmetries on \(\widetilde{\textbf{U}} \) introduced in [ WZ23 , §4.1]. Let \(\widetilde{ \Upsilon }\) be the quasi K -matrix for the quantum symmetric pair \((\widetilde{\textbf{U}} ,\widetilde{{\textbf{U}}}^\imath )\) and \(\widetilde{ \Upsilon }_i\) be rank one quasi K -matrices, for \(i\in \mathbb {I}\) . [ WZ23 , Theorem 3.6] is applicable to the \(\textbf{T}_i\) in Theorem 2.6 in the split affine type, and it gives us

for any \(x\in \widetilde{{\textbf{U}}}^\imath \) .

By assumption \(\tau i=i\) , we have \(\textbf{r}_i=s_i\) , \(t_{{\varpi }_i} =t_{\omega _i}\) and \(t_{{\varpi }_i'} =t_{\omega _i'}\) . Fix a reduced expression \(t_{\omega '_i} =\tau _i s_{i_1}s_{i_2} \cdots s_{i_k}\) where \(\tau _i\) is a Dynkin diagram automorphism. We define

( \(\widetilde{ \Upsilon }_{\omega '_i}\) here differs from the element in [ WZ23 , (8.1)] by the anti-involution \(\sigma \) . By [ WZ23 , Theorem 8.1] \(\widetilde{ \Upsilon }_{\omega '_i}\) is independent of the choice of a reduced expression of \(t_{\omega '_i}\) .) Then a repeated use of ( A.2 ) gives us

To verify ( A.1 ), we shall apply a strategy similar to [ WZ23 , Proof of Proposition 7.2] (where the notation \(\widetilde{\mathscr {T}}'_{w,-1} =\widetilde{\mathscr {T}}_w^{-1}\) is used). Let us write the LHS of ( A.1 ) in terms of a monomial basis of \(\widetilde{{\textbf{U}}}^\imath \) as

where \(B_J=B_{j_1} B_{j_2} \cdots B_{j_k}\) for some multi-index \(J=(j_1,j_2,\ldots ,j_k)\) with \(j_a\in \mathbb {I}\) and \(a_J \in \textbf{U}^{\imath 0}\) . The lowest weight homogeneous component of \(B_J\) (viewed as an element in \(\widetilde{\textbf{U}} \) ) has weight \(-\textrm{wt}(J)=-\alpha _{j_1} -\ldots -\alpha _{j_k}\) . Denote by \(Q_i:=\{-\textrm{wt}(J)\mid a_J\ne 0\}\) the set of negative weights whose corresponding homogeneous components of the LHS of ( A.4 ) are nonzero. We shall prove that \(Q_i=\emptyset .\)

Recall from ( A.3 ) that \(\textbf{T}_{\omega '_i}^{-1}(B_i) =\widetilde{ \Upsilon }_{\omega '_i}\widetilde{\mathscr {T}}'_{\omega '_i,-1}(B_i)\widetilde{ \Upsilon }_{\omega '_i}^{-1}\) , and by [ DK19 , Lemma 3.6], we have that \(\widetilde{ \Upsilon }_{\omega '_i}\in \bigoplus _{ \alpha \in \mathbb N\Delta (\omega _i')} \widetilde{\textbf{U}} ^+_{\alpha +\tau \alpha }\) . Then any negative weight appearing in the weights of homogeneous components of \(\textbf{T}_{\omega '_i}^{-1}(B_i)\) must have the form \(\alpha _i-\delta +\gamma +\tau \gamma \) , for some \(\gamma \in \mathbb N\Delta (\omega _i')\) . Moreover, since \(\tau i=i\) , the set \(\Delta (\omega _i')\) is fixed by \(\tau \) . Then, by Lemma 3.1 , the multiplicity of \(\alpha _0\) in \(\gamma +\tau \gamma \) for nonzero \(\gamma \in \mathbb N\Delta (\omega _i')\) is at least 2, and recall that the multiplicity of \(\alpha _0\) in \(\delta \) is 1. Hence, by counting the multiplicity of \(\alpha _0\) , the only negative weight appearing in homogeneous components of \(\textbf{T}_{\omega '_i}^{-1}(B_i)\) is \(\alpha _i-\delta \) . It follows by definition that \(Q_i \subseteq \{-2\alpha _i-\delta ,-\delta ,2\alpha _i-\delta \}\) .

A direct computation shows that the homogeneous components of ( A.1 ) of the weights \(-2\alpha _i-\delta , -\delta , 2\alpha _i-\delta \) are the LHS of ( A.5 )–( A.7 ) below, which we claim are all equal to 0:

Indeed, the identity ( A.5 ) follows by [ Be94 , Proposition 3.7]. The identities ( A.6 )–( A.7 ) follow from the identity \(\widetilde{\mathscr {T}}'_{\omega '_i,-1}(F_i) \; E_i = E_i \; \widetilde{\mathscr {T}}'_{\omega '_i,-1}(F_i)\) (see [ Be94 , Lemma 3.4]) and \([E_i,F_i]=\frac{K_i-K_i'}{v-v^{-1}}\) .

This shows that \(Q_i=\emptyset \) and hence the RHS of ( A.4 ) \(=0\) . This proves the desired identity ( A.1 ).

1.2 Proof of Lemma 3.6

It amounts to proving the identities ( 3.5 ), ( 3.6 ) and ( 3.7 ). The identity \([B_i,B_{\tau i}] =\frac{\mathbb K_{\tau i}-\mathbb K_i}{v-v^{-1}}\) in ( 3.7 ) follows by a direct computation.

For convenience we recall the identities ( 3.5 )–( 3.6 ) here as

for \(i\in \mathbb {I}_0\) with \(c_{i,\tau i}=0\) . Let us verify ( A.8 )–( A.9 ); the overall idea is similar to the proof of the identity ( A.1 ).

Recall the braid group symmetry \(\textbf{T}_{i}^{-1}\) (denoted by \(\textbf{T}'_{i,-1}\) in [ WZ23 , Theorem 3.6]) satisfies that

for any \(x\in \widetilde{{\textbf{U}}}^\imath \) . For a reduced expression \(t_{{\varpi }_i'}=\tau _i \textbf{r}_{i_1}\textbf{r}_{i_2} \cdots \textbf{r}_{i_k}\) with \(\tau _i\) a diagram automorphism, we define

By [ WZ23 , Theorem 8.1], \(\widetilde{ \Upsilon }_{{\varpi }'_i}\) is independent of the choice of a reduced expression of \( t_{{\varpi }_i'} \) . Then a repeated application of ( A.10 ) gives us

We prove ( A.8 ). Write the LHS of ( A.8 ) in terms of a monomial basis of \(\widetilde{{\textbf{U}}}^\imath \) as

where \(B_J=B_{j_1} B_{j_2} \cdots B_{j_k}\) for a multi-index \(J=(j_1,j_2,\ldots ,j_k)\) with \(j_a\in \mathbb {I}\) and coefficients \(a_J\) . The lowest weight homogeneous component of \(B_J\) (viewed as an element in \(\widetilde{\textbf{U}} \) ) has weight \(-\textrm{wt}(J)=-\alpha _{j_1} -\ldots -\alpha _{j_k}\) . Denote by \(Q_i:=\{-\textrm{wt}(J)\mid a_J\ne 0\}\) the set of negative weights (in \(-\mathbb N\mathbb {I}\) ) whose corresponding homogeneous components of the LHS of ( A.12 ) are nonzero. We will show that \(Q_i =\emptyset .\)

Note from ( A.11 ) that \(\textbf{T}_{{\varpi }'_i}^{-1}(B_i) =\widetilde{ \Upsilon }_{{\varpi }'_i}\widetilde{\mathscr {T}}'_{{\varpi }'_i,-1}(B_i)\widetilde{ \Upsilon }_{{\varpi }'_i}^{-1}\) , and by [ DK19 , Lemma 3.6], we have \(\widetilde{ \Upsilon }_{{\varpi }'_i}\in \bigoplus _{ {\varvec{\alpha }}\in \mathbb N\Delta ({\varpi }_i')} \widetilde{\textbf{U}} ^+_{2{\varvec{\alpha }}}\) . Then any negative weight component for \(\textbf{T}_{{\varpi }'_i}^{-1}(B_i)\) has weight \(\alpha _i-\delta +2\overline{\gamma }\) , for some \(\overline{\gamma }\in \mathbb N\Delta ({\varpi }_i')\) . Moreover, by Lemma 3.5 , the multiplicity of \(\alpha _0={\varvec{\alpha }}_0\) in \(2\overline{\gamma }\) for \(\overline{\gamma }\in \mathbb N\Delta ({\varpi }_i'){\setminus }\{0\}\) is at least 2, and recall that the multiplicity of \(\alpha _0\) in \(\delta \) is 1. Hence, by counting the multiplicity of \(\alpha _0\) , the only negative weight component for \(\textbf{T}_{{\varpi }'_i}^{-1}(B_i)\) has weight \(\alpha _i-\delta \) . It follows by definition that \(Q_i\subset \{-2\alpha _i-\delta , -\alpha _i-\delta +\alpha _{\tau i}, 2\alpha _{\tau i}-\delta \}\) .

A direct computation shows that the homogeneous components of ( A.8 ) of the weights \(-2\alpha _i-\delta , -\alpha _i-\delta +\alpha _{\tau i}, 2\alpha _{\tau i}-\delta \) are the LHS of ( A.13 )–( A.15 ) below, which we claim are all equal to 0:

Indeed, the identity ( A.13 ) follows by [ Be94 , Proposition 3.7]. The identities ( A.14 )–( A.15 ) can be derived from \([ E_{\tau i},F_i]=0\) and \(\widetilde{T}'_{{\varpi }'_i,-1}(F_i) E_{\tau i}= E_{\tau i} \widetilde{T}'_{{\varpi }'_i,-1}(F_i)\) ; see [ Be94 , Lemma 3.5].

This proves that \(Q_i =\emptyset \) , i.e., the RHS of ( A.12 ) \(=0\) , and hence the identity ( A.8 ).

Just as the identity ( A.8 ) was reduced to the identities ( A.13 )–( A.15 ) above, the identity ( A.9 ) is proved by an entirely similar argument (we skip the details) by reducing to the following identities ( A.16 )–( A.17 ):

The identity ( A.16 ) follows from [ Be94 , Lemma 3.4], while ( A.17 ) follows by a direct computation \([\widetilde{\mathscr {T}}'_{{\varpi }'_i,-1}(F_i),F_{\tau i}] =\widetilde{\mathscr {T}}'_{{\varpi }'_i,-1}\big ([F_i,F_{\tau i}]\big )=0\) , thanks to \(\widetilde{\mathscr {T}}'_{{\varpi }'_i,-1}(F_{\tau i})=F_{\tau i}\) .

This completes the proof of Lemma 3.6 .

Rights and permissions

Springer Nature or its licensor (e.g. a society or other partner) holds exclusive rights to this article under a publishing agreement with the author(s) or other rightsholder(s); author self-archiving of the accepted manuscript version of this article is solely governed by the terms of such publishing agreement and applicable law.

Reprints and permissions

About this article

Lu, M., Wang, W. & Zhang, W. Braid Group Action and Quasi-Split Affine \(\imath \) Quantum Groups II: Higher Rank. Commun. Math. Phys. 405 , 142 (2024). https://doi.org/10.1007/s00220-024-05005-7

Download citation

Received : 10 November 2023

Accepted : 28 March 2024

Published : 28 May 2024

DOI : https://doi.org/10.1007/s00220-024-05005-7

Share this article

Anyone you share the following link with will be able to read this content:

Sorry, a shareable link is not currently available for this article.

Provided by the Springer Nature SharedIt content-sharing initiative

Find a journal
Publish with us
Track your research

Skip to main navigation
Skip to search
Skip to content
Press Release Archive
AAPT Committees
Area Committees
Annual Report
Job Opportunities
Code of Conduct
Mission Statement
Organization
Marketing Opportunities
Privacy Statement
Strategic Plan
AAPT's DEI Strategy
COMMUNITIES
2024 AAPT Summer Meeting
2024 AAPT Winter Meeting
National Meetings
Highlights of Past Meetings
Meeting Abstract Archive
TYC Tandem Meeting
Physics Department Chairs Conference
Awards & Medals
Collaborative Projects
U.S. Physics Team
Grants & Scholarships
Contests & Competitions
New Faculty Programs
K-12 Portal
Virtual Coffee Hour
Publications Information
AJP Website
AAPT Book Archive
Browse AJP Online
Advertising Media Kit
Browse TPT Online
Video Abstracts
The Physics Teacher TOC
TOC Archive
eNNOUNCER Archive
AAPT Annual Report
Physical Review Physics Education Research
Physics Today
AAPT Section News Archive
News Archive
AAPT ComPADRE Digital Library
Joining AAPT - Levels & Dues
Member Benefits
Renew your membership
View or update your profile
Member Directory
How to Get Involved with AAPT
Testimonials
Member Spotlight Archive
In Memoriam
Diversity, Equity, and Inclusion in Physics
Sustainability in Physics
Colleges and Universities
AAPT ComPADRE Digital library
Speakers Bureau
AAPT Career Center
Program Review
Media Relations
Policy & Legislation
Guidelines and Recommendations
AAPT Sections
Affiliated Organizations
PERTG & PERLOC
Supporters of AAPT
Planned Giving
Volunteering
Conferences ›
2024 Summer Meeting ›
Call_for_Presentations

2024 AAPT Summer Meeting Section Navigation Show navigation

AAPT Code of Conduct
AAPT Dependent Care and Accessibility Grants
AAPT Travel Grants
Call for Presentations
Discounts on Travel & More
Visit These Exhibitors
K-12 Events
On-Line Program (Draft)
Plenary Speakers and Awardees
Preliminary Program
Poster Guidelines
Moderator Training
Registration
Session Titles
Special Events

Presentation submissions for the 2024 Summer Meeting

Calling all physics educators! AAPT invites you to join a vibrant and enthusiastic community of fellow educators. If you're passionate about advancing physics education and have innovative teaching ideas to share, seize this opportunity to connect and collaborate at the 2024 AAPT Summer Meeting in the historical city of Boston, Massachusetts.

Submission guidelines can be found here .
Review session topics available for submission.
Submit your presentation today.
The deadline for talks was Friday, March 1, 2024, and for poster submissions , it was Thursday, May 23, 2024.

We are pleased to announce planning is well underway for our 2025 Winter Meeting, scheduled for January 18-21 at the St. Louis Union Station Hilton Hotel. For more information and to submit your proposal for the St. Louis meeting, please click [ here ].

Dir e cti ons for Submitting an Unsolicited (or "Contributed") Presentation:

1. Sign In: Sign in with your AAPT member ID or create an account if you are not a member. Please do not submit an abstract for someone else. Regardless of who's name is on the abstract the system only recognizes the submitter.

2. Select a Presentation Category: Select “Contributed Only” and then select a topic from the dropdown. Please do not select the “Invited” selection unless you have received a personal invitation from AAPT and/or the session organizer to submit a presentation.

3. Select a Format: Poster Only

Traditional Poster: A session occurring in a 2-hour block in the common/exhibit hall area, accessible by all meeting attendees.

4. Physics Education Research (PER) Talk: Once you enter your presentation title and body, you will be asked if your submission is PER-related.

5. Presentation Title and Body: Add your abstract title (please use capital letters ) and enter the body of your abstract (200 words or less)

6. Co-authors/Footnotes/Comments/ Conflicts: Add your co-authors, include your footnotes, and indicate any scheduling conflicts or comments.

7. Save: You can hit "Save" and go back in and make changes, however, you must hit "Save and Finalize" for AAPT to accept your presentation. After it has been finalized, changes are not possible.

Directions for Submitting an Invited Presentation

1. Sign In: Sign in with your AAPT member ID or create an account if you are not a member.

2. Select a Presentation Category: Select "Invited Only" from the dropdown and then choose the appropriate session topic.

3. Presentation Title and Body: Add your abstract title (please use capital letters ) and enter the body of your abstract (200 words or less).

4. C o-authors/Footnotes/Comments/ Conflicts: Add your co-authors, include your footnotes, and indicate any scheduling conflicts or comments.

5. Save: You can hit "Save" and go back in and make changes, however, you must hit "Save and Finalize" for AAPT to accept your presentation. After it has been finalized changes are not possible.

Find out more and become a part of SM2024 on: Facebook | Twitter

IMAGES

Physics PowerPoint Templates
Free Physics PowerPoint Template and Google Slides
12+ Awesome Physics PowerPoint Templates
Free Physics PowerPoint Template and Google Slides
PPT
Free Physics PowerPoint Template

VIDEO

PHYSICS CHAPTER 8 LECTURE 3 FOR CLASS 9 & CLASS 10 IN BANGLADESH
what is physics
Pairing Scheme of Physics FSc part -2
What is Physics?
Modern Physics
physics paper presentation class 12|physics paper 2024 2nd year Lahore Board group 1|

COMMENTS

Free Physics templates for Google Slides and PowerPoint
Download the "Energy and Waves - Physics - 11th Grade" presentation for PowerPoint or Google Slides. High school students are approaching adulthood, and therefore, this template's design reflects the mature nature of their education. Customize the well-defined sections, integrate multimedia and interactive elements and allow space for ...
1.1 Physics: An Introduction
The study of physics also can improve your problem-solving skills. Furthermore, physics has retained the most basic aspects of science, so it is used by all of the sciences, and the study of physics makes other sciences easier to understand. Figure 1.4 The laws of physics help us understand how common appliances work.
Chapter 1
1.1 What is Physics? The study of the physical world. Use a small number of basic concepts, equations, and assumptions to describe the physical world. Can be used to make predictions about a broad range of phenomena. Appliances, tools, buildings, inventions are all basic physics principles put to test.
What is physics? (article)
For one, physics keeps changing as we progress and make new discoveries. New theories don't just bring new answers. They also create new questions that might not have even made sense when viewed from within the previous theory of physics. This makes physics exciting and interesting, but it also forces attempts at defining physics into ...
Physics library
Physics is the study of matter, motion, energy, and force. Here, you can browse videos, articles, and exercises by topic. We keep the library up-to-date, so you may find new or improved material here over time. Introduction to physics Displacement, velocity, and time Acceleration. Kinematic formulas and projectile motion Old videos on ...
Free Physics PowerPoint Template and Google Slides
To understand how the world works as it does, then Physics lessons can give you the answers. To make your understanding easy and lessons creative, here we have free Physics PowerPoint template and Google slides.With this amazing Physics ppt template, we guarantee you create a presentation that looks appealing and conveys necessary information precisely to your students.
Newton's Laws Infographics
Free Google Slides theme, PowerPoint template, and Canva presentation template. Newton was a scientist that changed the history of physics. He came up with three laws that could describe how the objects around us move and interact with each other, and they're super easy to understand, as long as you use visual representations of the forces.
Physics Presentation Template
Physics Presentation Template. Ignite scientific curiosity with this attractive physics presentation template. Transform abstract physics theories into captivating presentations with this fully editable and sleek template. Designed to ease the process of explaining complex ideas, it offers a unique way for teachers, professors, and students to ...
physics Powerpoint templates and Google Slides themes
Social Media. 8 templates. Sports. 46 templates. Travel. 26 templates. Workshop. 4 templates. Download your presentation as a PowerPoint template or use it online as a Google Slides theme. 100% free, no registration or download limits.
Physics PowerPoint Templates
The templates of Physics are eye-catching layouts of scientific experiments and theories. These Physics PowerPoint Templates are suitable for academic purposes. Because the slides show a colorful illustration of chemical reactions are components that can simulation-based learning and teaching. The PowerPoint templates of Physics also useful for presenting multiple categories of natural science.
Introduction to Physical Science
Physical Science PowerPoint Template. Physics is the study of matter, energy and its interactions in space and time. This natural science has made important contributions to the development of technologies such as airplanes, computers, x-rays, televisions, and more. Physicists from any field can use the Physics Presentation Template to share ...
Lecture Slides
10.1. Particle Interaction with Matter (PDF - 1.1MB) 10.2. Tracking Detectors (PDF) 10.3. Calorimetry (PDF) 10.4. Accelerators (PDF - 5MB) [adapted from the Advanced Accelerator Physics slides by Prof. Georg Hoffstaetter, Cornell University] This section includes 67 short lecture slides.
Teacher Presentation Pack for Physics
The Physics Classroom's Teacher Presentation Pack. For more than two decades, The Physics Classroom has been supporting students, teachers and classrooms in the vital tasks of learning and teaching physics. Our Teacher Presentation Pack is a teacher resource designed to facilitate lesson planning, curriculum development, and presentations. ...
Physics PowerPoints
Physics 11-Electromagnetic Waves and Optics (2016).pdf: 7.53Mb; Physics 12-Special Relativity (2016).pdf: 919.56kb; This work is licensed under a Creative Commons Attribution-NonCommercial-NoDerivatives 4.0 International License. Contact Me. Visit my favorite educational institutions.
Top 101 Physics Topics For Presentation [Updated]
Creating a compelling physics presentation involves careful planning, research, and effective communication of complex concepts in a clear and engaging manner. Here are some steps to help you make your physics presentation: Choose a Topic: Select a physics topic that interests you and aligns with your audience's level of understanding ...
Preparing an Effective Presentation
Preparing an Effective Presentation. Brad R. Conrad, PhD, Director of SPS and Sigma Pi Sigma. Crafting an effective presentation has significant implications on how we best communicate science and can help propel a career to new heights. It is important to understand the keys to effectively presenting and communicating your work.
Physics powerpoint presentations Free to download
Other hints and tips for making physics powerpoint presentations. Incorporate real-world examples: Relate physics concepts to real-life examples and applications. Show how these concepts are used in everyday situations or in specific fields like engineering or astronomy. This can help students connect theory to practical applications.
200 Interesting Physics Seminar and Powerpoint Presentation Topics
The Physics of the Egyptian Pyramids. Nanowires. Magnus effect and its applications. Sustainable energy ( PPT 2) The Physics of Fire ( PPT) The Motion of the Planets. Artificial Intelligence (AI) in Our Everyday Life. The String theory: A theory of Everything. Electromagnetism and Its applications in daily life.
Physics 11 Dynamics By: Bryon Long.
Download ppt "Physics 11 Dynamics By: Bryon Long." Table of Contents Introduction to Dynamics Newton's First Law of Motion Newton's Second Law of Motion Law of Universal Gravitation Gravitational Field Strength Normal Force Frictional Force Elastic Force - Hooke's Law Newton's Third Law of Motion Momentum Impulse Elastic Collision ...
Meet and Connect
Join the physics community to share your research, broaden your network, and investigate new opportunities. Explore communities. Featured events. ... Revisit your favorite presentations, explore new physics research, and more through our on-demand content from April Meeting. Webinar Library. Get involved, advance your career, and explore ...
Braid Group Action and Quasi-Split Affine \(\imath
The Drinfeld presentation of affine \(\imath \) quantum groups will lead via a degeneration approach to a Drinfeld presentation for the twisted Yangians of the corresponding quasi-split types. The Drinfeld presentation will be crucially used in the categorical realization of affine \(\imath \) quantum groups via \(\imath \) Hall algebras of ...
2024 Summer Meeting -Call_for_Presentations
Presentation submissions for the 2024 Summer Meeting Calling all physics educators! AAPT invites you to join a vibrant and enthusiastic community of fellow educators. If you're passionate about advancing physics education and have innovative teaching ideas to share, seize this opportunity to connect and collaborate at the 2024 AAPT Summer ...

1.1 Physics: An Introduction

Science and the Realm of Physics

Applications of Physics

Models, Theories, and Laws; The Role of Experimentation

Models, Theories, and Laws

The Scientific Method

The Evolution of Natural Philosophy into Modern Physics

Limits on the Laws of Classical Physics

Check Your Understanding

PhET Explorations

Physics library

Free Physics PowerPoint Template and Google Slides

About the Template

Features of this template:

Free Physics Background for PowerPoint & Google Slides

Free Google Slides History Template PowerPoint

Free Science Background PowerPoint & Google Slides

Slidescarnival Presentation PowerPoint and Google Slides Template

Free Google Slides Maths Background & PowerPoint Template

Got any suggestions?

first day of school

great barrier reef

Newton's Laws Infographics

Features of these infographics

Attribution required If you are a free user, you must attribute Slidesgo by keeping the slide where the credits appear. How to attribute?

How to Add, Duplicate, Move, Delete or Hide Slides in Google Slides

How to Change Layouts in PowerPoint

How to Change the Slide Size in Google Slides

Premium template

physics Powerpoint templates and Google Slides themes

Capsule With Money-Medical PPT Templates

Suitable for PowerPoint and Google Slides

Want to know more?

Sunlight Moon Phases PowerPoint Template

Atom Globe Concept PowerPoint Template

Rocket Boosters Trajectory PowerPoint Shapes

Convergence Metaphor Slides PowerPoint Templates

Global Education PowerPoint Template

Test Tube Shapes for PowerPoint

Chemical Industry Shapes for PowerPoint

Back To School PowerPoint Template

Atom Shapes for PowerPoint

Dark Brainstorming PowerPoint Template

Brainstorming PowerPoint Template

Wave Curves for PowerPoint

Browse Course Material

Departments

Learning Resource Types

You are leaving MIT OpenCourseWare

The Physics Classroom's Teacher Presentation Pack

Mr. Wright's Classroom Resources

Physics Powerpoints

Top 101 Physics Topics For Presentation [Updated]

How to Make Your Physics Presentation?

Top 101 Physics Topics For Presentation

Tips to Fellow to Make Physics Presentation Successful

Related Posts

Step by Step Guide on The Best Way to Finance Car

The Best Way on How to Get Fund For Business to Grow it Efficiently

The World of Teaching

Physics powerpoint presentations Free to download

Physics powerpoint presentations- Please submit any powerpoints you have made at the bottom of this page

200 Interesting Physics Seminar and Powerpoint Presentation Topics

Interesting topics for Powerpoint Presentation in Physics

Interesting Questions for Physics Powerpoint Presentation Ideas

Trending Seminar Topics

Recent Seminar Topics

Investigatory Projects Topics

Presentation Topics

Speech Topics and Ideas

Auth with social network:

Physics 11 Dynamics By: Bryon Long.

Presentation on theme: "Physics 11 Dynamics By: Bryon Long."— Presentation transcript:

About project

Meet and Connect

Featured events

DAMOP Annual Meeting

Gaseous Electronics Conference

DPP Annual Meeting

Meetings and events calendar