Course Package Form 2018 Outline
Mohave Community College
PHY 115 University Physics I with Lab


Originator: Cox, Russell           Status: Approved           Department: PHY Physics
Date Created: 01/28/2019         Submitted: 02/08/2019         Completed: 05/22/2019        
Effective Semester: Spring  
Catalog Year: 2019-20  
Course Prefix: PHY  
Course Number: 115  
Course Full Title: University Physics I with Lab  
Old course information:  
Reason for Evaluation: CSLO, Competencies, and/or Outline Changes    
Current Credit: 5  
Lecture Hours: 4  
Lab Hours: 1  
Clinical Hours:  
New Credit Hours:  
Lecture Hours:  
If the credit hour change box has been marked, please provide the new credit hour:  
New Lecture Hours:  
New Lab Hours:  
New Clinical Hours:  
New Internship Hours:  
New Externship Hours:  
SUN Course?: Yes  
AGEC Course?: Yes  
Articulated?: Yes  
Transfer: ASU   NAU   UA    
Prerequisite(s): MAT 221  
Corequisite(s): PHY 115L  
Catalog Course Description: General physics course using calculus to develop the principles of mechanics and thermodynamics. Recommended for majors in the science and mathematics. Required for Engineering majors  
Course Learning Outcomes: 1. Use fundamental mechanics and thermodynamic laws to solve problems encountered in academic and non-academic environments. (5)

2. Develop and use appropriate models that closely represent actual physical situations. (3)

3. Apply problem-solving techniques in terms of logic, efficiency, and effectiveness. (3)

4. Solve problems beyond the level of plug-in type problems. (3)

5. Solve practical engineering and science problems. (3,5)  
Course Competencies: Competency 1: Use scientific terms to describe measurements

Competency 2: Describe motion in one dimension.

Competency 3 Describe kinematics in two dimensions

Competency 4: Explain the causes of motion by using Newton's three laws of motion.

Competency 5: Apply Newton's laws to other situations

Competency 6: Understand gravitation.

Competency 7: Solve problems dealing with work, energy, and conservation of energy.

Competency 8 Use the conservation of energy to solve problems dealing with mechanical energy.

Competency 9: Describe the concept of linear momentum and collisions.

Competency 10: Describe rotational motion about a fixed axis.

Competency 11: Solve problems for general rotation.

Competency 12: Describe bodies in static equilibrium

Competency 13: Solve problems involving solids and fluids.

Competency 14: Solve problems involving oscillations and waves.

Competency 15: Characterize wave motion.

Competency 16: Solve problems involving sound.

Competency 17: Solve problems dealing with temperature, thermal expansion, and the ideal gas law.

Competency 18: Use the kinetic theory of gasses to solve problems.
 
Course Outline: Units and Measurement
-What is Physics
-Standard Units
-Unit Conversion
-Dimensional Analysis
-Estimation
-Significant Figures

Vectors
-Scalars and Vectors
-Coordinate Systems
-Components of a Vector
-Adding and Subtracting Vectors
-Dot and Cross Product of Vectors

Motion in One Dimension
-Position and Displacement
-Average Velocity, Instantaneous Velocity, and Speed
-Average and Instantaneous Acceleration
-Motion with Constant Acceleration
-Free Fall
-Finding Velocity and Displacement from Acceleration

Motion in Two and Three Dimensions
-Displacement Vectors
-Velocity Vectors
-Acceleration Vectors
-Projectile Motion
-Uniform Circular Motion
-Relative Motion in One and Two Dimensions

Newton's Laws of Motion
-Force and Force Vectors
-Newton's First Law
-Newton's Second Law
-The Difference Between Mass and Weight
-Newton?s Third Law
-Common Forces
-Free-Body Diagrams

Applications of Newton's Laws
-Solving Problems with Newton?s Laws
-Friction
-Centripetal Force
-Drag Force
-Terminal Speed


Work and Kinetic Energy
-Work
-Kinetic Energy
-The Work-Energy Theorem
-Power

Potential Energy and Conservation of Energy
-Potential Energy of a System
-Conservative and Non-Conservative Forces
-Conservation of Energy
-Potential Energy Diagrams and Stability
-Sources of Energy

Linear Momentum and Collisions
-Linear Momentum
-Impulse
-Collisions
-Conservation of Linear Momentum
-Types of Collisions
-Collisions in Multiple Dimensions
-Center of Mass
-Rocket Propulsion

Fixed-Axis Rotation
-Rotational Variables
-Rotation with Constant Angular Acceleration
-Relating Angular and Translational Quantities
-Rotational Kinetic Energy
-Moments of Inertia
-Torque
-Newton?s Second Law for Rotation
-Work for Rotational Motion
-Power for Rotational Motion

Angular Momentum
-Rolling Motion
-Angular Momentum
-Conservation of Angular Momentum
-Precession of Gyroscopes

Equilibrium and Elasticity
-Static Equilibrium
-Stress
-Strain
-Elastic Modulus
-Elasticity compared to Plasticity

Gravitation
-Newton's Law of Universal Gravitation
-Gravitation Near Earth's Surface
-Gravitational Potential Energy and Total Energy
-Satellite Orbits and Energy
-Kepler's Laws of Planetary Motion
-Tidal Forces
-Einstein's Theory of Gravity

Fluid Mechanics
-Fluids
-Density
-Pressure
-Pascal's Principle and Hydraulics
-Archimedes? Principle and Buoyancy
-Fluid Dynamics
-Bernoulli?s Equation
-Viscosity and Turbulence

Oscillations
-Simple Harmonic Motion (SHM)
-Energy of Objects Undergoing SHM
-Comparing Simple Harmonic Motion and Circular Motion
-Pendulums
-Damped and Forced Oscillations

Waves
-Traveling Waves
-Wave Speed on a Stretched String
-Energy and Power of Waves
-Interference of Waves
-Standing Waves
-Resonance

Sound
-Sound Waves
-The Speed of Sound
-Sound Intensity
-Normal Modes of a Standing Sound Wave
-Beats
-The Doppler Effect
-Shock Waves

Temperature and Heat
-Temperature
-Thermal Equilibrium
-Temperature Scales
-Thermal Expansion
-Heat Transfer
-Specific Heat
-Calorimetry
-Phase Changes
-Heat Transfer

The Kinetic Theory of Gases
-Molecular Model of an Ideal Gas
-Pressure, Temperature, and RMS Speed
-Heat Capacity
-Distribution of Molecular Speeds

The First Law of Thermodynamics
-Thermodynamic Systems
-Work, Heat, and Internal Energy
-First Law of Thermodynamics
-Thermodynamic Processes
-Heat Capacities of an Ideal Gas
-Adiabatic Processes for an Ideal Gas

The Second Law of Thermodynamics
-Reversible and Irreversible Processes
-Heat Engines
-Refrigerators and Heat Pumps
-Second Law of Thermodynamics
-The Carnot Cycle
-Entropy