Credits: 5 Lecture Hours:4 Lab Hours:2 Practicum Hours:0 Work Experience:0 Course Type:CoreThis course is the first semester of a two-semester sequence in non-calculus physics. Topics include forces, linear and rotational motion, energy, momentum, fluids, gases and heat. Prerequisite:MAT 130 or H.S. equivalent Competencies
Investigate the fundamental structure of a physical science
Examine the scientific method
Practice the theory of measurement and error.
Distinguish between units and dimensions
Examine currently used unit systems
Distinguish between scalar and vector quantities
Perform operations in vector addition and subtraction
Resolve vectors into cartesian coordinates
Solve vector problems using a graphical method
Translate cartesian vector components into polar form
Find the magnitude and direction of vectors given in component form
Develop the first and second condition for equilibrium
Solve problems requiring the first condition of equilibrium
Define the physical quantity of torque
Solve problems requiring the first and second condition of equilibrium
Define the center of gravity
Apply the center of gravity concept to equilibrium problems
Develop the principles of particle kinematics
Define speed and velocity
Use the concept of relative velocity
Define acceleration
Solve problems in uniformly accelerated rectilinear motion
Solve problems in projectile motion
Perform exercises in dimensional analysis
Develop the principles of particle dynamics
Investigate Newton’s three Laws of Motion
Distinguish between mass and weight
Analyze frictional forces
Solve problems involving F = ma
Analyze motion on an incline
Analyze motion of several connected bodies
Examine the principles of work, energy and power
Define the physical meaning of work
Calculate the work done by constant and variable force in different types of force systems
Define the physical meaning of power
Solve problems involving power concepts
Define kinetic and potential energy
Develop the Work-Energy Theorem
Incorporate spring potential energy into the Work-Energy Theorem
Incorporate gravitational potential energy into the Work-Energy Theorem.
Calculate the work due to friction
Develop the Law of Conservation of Energy
Apply the Law of Conservation of Energy to Physical problems
Investigate the concept of linear momentum
Define linear momentum
Develop the principle of impulse-momentum
Solve problems involving impulse-momentum
Develop the Law of Conservation of Momentum
Apply conservation of momentum to elastic and inelastic collisions in one and two dimensions
Analyze rocket propulsion form the perspective momentum conservation
Examine center of mass motion
Develop the principle of rotational and orbital motion
Define angular measures as vectors
Define angular speed and velocity
Define angular acceleration
Analyze tangential quantities
Investigate the concept of radial acceleration
Solve problems involving angular kinematics.
Investigate the concept of centripetal force
Solve centripetal force problems.
Generalize rotational concepts to the Universal law of Gravitation
Solve problems using the Universal Law of Gravitation
Develop the principles of rotational dynamics
Define the moment of inertia of a rigid body
Examine rigid body rotation
Establish analogies with linear motion
Calculate the moment of inertia of various objects
Calculate problems using the Parallel Axis Theorem.
Develop the principles of rotational momentum and energy
Analyze the kinetic energy of a body in pure rotation.
Define angular work and power in terms of torque
State rotational analogs to linear motion.
Solve problems involving rotational energy and power
Define angular momentum
Establish the Law of Conservation of Angular Momentum
Solve problems involving angular momentum
Develop the principles of oscillatory motion
Define the terminology of oscillatory motion
Analyze the characteristics of simple harmonic motion
Determine the equation of motion for SHM.
Calculate the energy of a body executing SHM
Solve problems involving SHM
Investigate damped and driven harmonic oscillators
Define resonance and resonant frequency
Develop the principles of wave motion
Define the terminology of wave motion
Analyze the characteristics of wave motion
Examine the equation of a traveling wave
Examine the properties of waves
Calculate the speed of a harmonic wave.
Determine the different types of waves
Analyze the characteristics of sound waves.
Calculate the speed of sound
Distinguish between sound loudness and intensity
Define the Doppler Effect
Calculate problems involving the Doppler Effect
Develop the principles of standing waves
Define the terminology of standing waves
Calculate the harmonics of a standing wave.
Relate the basic principles of physics to continuum mechanics
Generalize Hooke’s Law to any elastic medium
Generalize the concept of friction to viscosity in a liquid
Define the pressure in a liquid
State Archimedes’ Principle
Solve problems using Archimedes’ Principle
State Bernoulli’s Equation
Solve problems using Bernoulli’s Equation
State Pascal’s Principle.
Solve problems using Pascal’s Principle
Relate the basic principle of physics to the behavior of gases
Define the terminology of gases
Determine equivalent temperatures in various temperature scales
State the Ideal Gas Law.
Solve problems involving the Ideal Gas Law
Investigate the thermal properties of matter.
Examine the concept of heat and thermal energy
Define the terminology of thermal physics
Calculate the specific heat of an ideal gas
Calculate the work done during expansion
Solve thermal expansion problems
Discuss heat transfer
Define thermal conductivity
Solve heat transfer problems
Develop the concepts of thermodynamics
State the Zeroth Law of Thermodynamics
State the First Law of Thermodynamics.
State the Second Law of Thermodynamics
Investigate the processes involved in thermodynamics
Analyze the Carnot Cycle
Define entropy
Discuss entropy changes in an irreversibly process