Favorite Experiments in Physics and Physical Science

  • Favorite Experiments in Physics and Physical Science
  • Favorite Experiments in Physics and Physical Science
  • Favorite Experiments in Physics and Physical Science

Favorite Experiments in Physics and Physical Science


  • A new collection of experiments and demonstrations to bring fresh vigor and real science learning into your classroom. Included are complete descriptions of eleven separate student experiments to accompany Novare texts and over 50 demonstrations in physics and introductory chemistry.

    Frustrated with a "magic show" mentality in your lab experiments? Everyone agrees that experiments are necessary. But if they are going to be worth the time, they must be carefully designed to educate students in principles of lab procedures, measurement, observation, recording, and analysis.

    Favorite Experiments accomplishes this by starting each experiment with clear learning objectives followed by an explanation of the experiment and why we are doing it. The materials list includes source information (such as Flinn Scientific or the local hardware store) with part or model numbers where applicable.

    Wherever possible, we strive to keep costs down. Ordinary household items can often serve just fine in an experiment (remember, the great pioneer scientists always designed their own experiments). But a student must also learn to use and understand real laboratory equipment; we don't want them arriving at their college labs having never handled a beaker or having never used safety equipment. Our experiments strive to create a real science lab environment at a minimum of cost.

    Chapters go on to a list of pre-lab discussion questions and talking points, notes for student preparation, and student instructions for conducting the experiment. Instructions include useful guidelines such as avoiding pitfalls, taking accurate measurements, and incorporating everyone in the group to help with some aspect of the experiment. Where safety concerns exist, this book gives clear instructions and prescribes standard lab safety procedures and equipment.

    Then after the experiment, students need to experience real-world science by thinking about clean-up and disposal procedures (you can't just pour chemical waste down the sink) and analyzing of data.

    Novare Science & Math believes strongly that students from 9th grade onwards should write a formal lab report after an experiment. The Student Lab Report Handbook is the perfect student guide to preparing premier lab reports on a computer.

    Favorite Experiments contains all the information needed for the experiments in Novare textbooks Accelerated Studies in Physics and Chemistry, Introductory Physics, and Physics: Modeling Nature. Also included are more than 50 demonstrations that can be performed by an instructor. The basic student instructions are included in each textbook or can be photocopied and distributed.  Student Instructions are also available for FREE DOWNLOAD in PDF format in the Support tab.

  • Favorite Experiments Materials List (PDF)

  • John D. Mays
    After receiving his BS in Electrical Engineering from Texas A&M University, John D. Mays worked for 14 years as an electrical engineering and engineering manager in the areas of electrical, control, and telecommunications systems. Drawn toward the field of education, John acquired an MEd in Secondary Education from the University of Houston in 1989, and subsequently completed 36 hours of graduate study in Physics at Texas A&M. Shortly after joining the faculty at Regents School of Austin in 1999, John began work on an MLA at St. Edward's University, which he completed in 2003. John served as Math-Science Department Chair at Regents School for nine years and as Director of the Laser Optics Lab for 10 years. He founded Novare Science & Math in 2009 and is the author of numerous science texts and teacher resources. He now works full time as Director of Science Curriculum for Classical Academic Press.

  • ISBN: 9780988322806
    Edition: 1st
    Grade Level: 9-12
    Trim Size: 6.5” x 9.5"
    Binding: Soft cover
    Color or BW: Color
    Pages: 284

    Experiments for Introductory Physics

    • The Pendulum Lab: experimental methods and procedures
    • The Soul of Motion: Newton's second law of motion
    • The Hot Wheels Lab: conservation of energy
    • DC Circuits: DC circuits and the use of electronic test equipment
    • The Density Lab: accurately determining density with correct lab technique and computer-based analysis

    Experiments for Accelerated Studies in Physics and Chemistry(ASPC)

    The above experiments in Introductory Physics, plus

    • The Solubility Lab: determining solubility and the effect of temperature on solubility

    Demonstrations for Introductory Physics and ASPC

    • Retrograde Motion
    • What is an Ellipse?
    • Newton's 3rd Law
    • Charles' Law
    • Gravitational Potential Energy and Kinetic Energy
    • Work
    • Conservation of Momentum
    • Refraction
    • Diffraction and Interference
    • Interference
    • Resonance
    • Frequencies of Sound
    • Loudness of Sound
    • Harmonics and Timbre
    • Setting Up Your Lab for Sound Demonstrations
    • Electrochemistry
    • Static Electricity
    • Magnetic Fields
    • Ampere's Law
    • Faraday's Law of Magnetic Induction
    • Motors
    • Generators
    • Synthesis and Activation Energy: Burning Magnesium
    • Single Replacement and Synthesis: Hydrogen Production 1
    • Double Replacement and Decomposition: Baking Soda and Vinegar
    • Single Replacement and Synthesis: Hydrogen Production 2
    • Single Replacement and Synthesis: Hydrogen Production 3
    • Collision Theory and Activation Energy: Exploding Coffee Creamer

    Experiments for Physics: Modeling Nature

    • Bulls Eye Lab: use vector-based equations for two-dimensional projectile motion to make predictions
    • The Friction Challenge: design methods to produce accurate and precise measurements of static and kinetic coefficients of friction and implement these methods to measure brass-on-brass contact under dry and lubricated conditions
    • Rotational Kinetic Energy: use energy equations to predict translational velocity of a solid steel ball after it rolls to the bottom of a ramp, and compare prediction to experimental results
    • Calorimetry: determine specific heat capacity of copper using the techniques of calorimetry and theory of heat transfer
    • Sound Lab: use the theory of inverse square variation and logarithms to make quantitative predictions about decibels and sound pressure level of a piezo siren at various distances

    Demonstrations in Physics: Modeling Nature

    • Projectile Motion: The Monkey and the Hunter
    • Torque: The Magic Belt on Hook
    • Moment of Inertia: Rolling Ring and Disk on Ramp
    • Centripetal Force: Whirling Ball on a String
    • Conservation of Angular Momentum: Spinning Stool and Weights
    • Pressure and Density: Cartesian Diver
    • Pressure and Density: U-Tube Manometer
    • Pressure and Hydraulics: Miniature Floor Jack
    • Pressure and Bernoulli's Equation: Bernoulli Paper
    • Atmospheric Pressure and Sound
    • Pressure and Phase Transitions: Boiling Water at Room Temperature
    • Pressure and Phase Transitions: Pressure-Induced Freezing
    • Thermodynamics: Drinking Bird
    • Thermodynamics: Fire Syringe
    • Thermodynamics: CO2 Water Bottle
    • DC Circuits: Charging Capacitor
    • Waves and Light: Interference and the Grating Equation
    • Waves and Light: CD Track Pitch and the Grating Equation
    • Light Polarization: Crossed Polaroid Films