Phone: 337-475-5874
Fax: 337-475-5286
Box 91735
Lake Charles, LA 70609
engineering@mcneese.edu http://mcneese.edu/ceet/eng

Engineering - ENGR 301

Statics

  • Define the concept of Mechanics.
  • Introduce the fundamental concepts and principles.
  • Introduce the systems of units.
  • Explain the method of problem solution.
  • Introduce static of particles.
  • Analyze the forces in a plane:
    • Forces on a particle, resultant of two forces.
    • Vectors, addition of vectors
    • Resultant of several concurrent forces
    • Resolution of a force into components
    • Rectangular components of a force
    • Unit vectors
    • Addition of forces by summing x&y components
    • Equilibrium of a particle
    • Newton’s first law of motion
    • Problems involving the equilibrium of a particle, free body diagrams
  • Analyze the forces in space
    • Rectangular components of a force in space
    • Force defined by its magnitude and two points on its Line of Action
    • Addition of concurrent forces in space
    • Equilibrium of a particle in space
  • Introduce rigid bodies
  • Introduce external and internal forces
  • Explain the principle of transmissibility and equivalent forces
  • Analyze the vector products of two vectors.
  • Derive the vector products expressed in terms of rectangular components.
  • Disscuss the moments of a force about a point
  • Discuss Varignon’s Theorem.
  • Explain the rectangular components of the moments of force.
  • Derive the scalar products of two vectors.
  • Derive the mixed product of three vectors.
  • Explain the moment of force about a given axis.
  • Dermine the moment of couple, equivalent of couples, addition of couples.
  • Solve the resolution of a given force into a Force at 0 and a Couple.
  • Discuss the reduction of a system of forces to One Force and One Couple.
  • Find the equivalent systems of forces.
  • Find the equivalent systems of vectors.
  • Determine the further reduction of a system of forces.
  • Solve problems on the reduction of a system of forces to a wrench.
  • Introduce the equilibrium of rigid bodies.
  • Analyze the free body diagram
  • Determine the equilibrium in two dimensions:
    • Reaction at supports and conncections for a two dimensional structure
    • Equilibrium of a rigid body in two dimensions.
    • Statically indeterminate reactions. Partial Constraints.
    • Equilibrium of a two-force body.
    • Equilibrium of a three-force body.
  • Determine the equilibrium in three dimensions:
    • Equilibrium of a rigid body in three dimensions
    • Reactions at supports and connections for three-dimension stucture.
  • Introduce distributed forces
  • Explain the areas and lines:
    • Center of gravity of a two-dimensional body
    • Centroids of area and lines
    • First moments of area and lines
    • Composite plates and wires
    • Determination of centroids by integration
    • Theorems of Pappus-Guldinus
    • Distributed loads on beams
    • Forces on submerged surfaces.
  • Determining the volumes:
    • Center of gravity of a three-dimensional body. Centroids of a volume
    • Composite bodies
    • Determination of centroids of volumes by integration
  • Introduction of structures
  • Analyze the trusses
    • Definition of a truss
    • Simple trusses
    • Analyze trusses by the method of joints
    • Joints under special loading conditions
    • Space trusses
    • Analyze trusses by the method of sections
    • Trusses made of several simple trusses
  • Analyze frames and machines
    • Structures containing multiforce members
    • Analyze a frame
    • Frames which cease to be rigid when detached from their supports
    • Machines
  • Introduce the forces in beams and cables
  • Determine the internal forces and members
  • Explain the beams:
    • Various types of loading and support
    • Shear and bending moment in beam
    • Shear and bending moment in diagrams
    • Relations among load, shear, and bending moment.
  • Explaining the cables
  • Analyzing the cables with concentrated and distributed loads, parabolic cable, catenary.
Prepared by Dr. Pankaj Chandra, P.E.