Reinforced Concrete Design

Design of reinforced concrete beams, slabs, columns and footings to ACI 318 with ASCE 7 loads: flexure of rectangular, T and doubly reinforced sections, deflection and crack control, shear, bond and development, one-way slabs, two-way slabs by the direct design method with punching shear, column interaction diagrams and slenderness, and spread footings, applied to a municipal operations center.

CIV-330 Year 3 3 credits 12 lessons · 4 h 15 min ▶ Video lessons coming soon

Offered by HSM University · Civil Engineering

This is the American version of this course. See the Canadian version.

What you'll learn

  • Explain limit states design for reinforced concrete and compute required strengths with the ASCE 7 load combinations and the ACI 318 strength reduction factors.
  • Select design properties of concrete and reinforcing steel, including the Whitney stress block, modulus of elasticity, modulus of rupture, bar sizes, cover and spacing.
  • Analyze and design singly reinforced rectangular beams for flexure, classifying sections by net tensile strain and applying the minimum reinforcement requirement.
  • Analyze and design doubly reinforced beams and T-beams using effective flange widths and strain compatibility, including compression steel that does not yield.
  • Check serviceability of beams and slabs by minimum thickness, by calculated immediate and long-term deflection with the Bischoff effective moment of inertia, and by bar spacing limits for crack control.
  • Design shear reinforcement for beams, including minimum stirrups, spacing limits, the limit on stirrup strength and the size effect for members without stirrups.
  • Compute development lengths for straight bars, standard hooks and compression bars, and detail bar cutoffs and tension and compression lap splices.
  • Design continuous one-way slabs using moment coefficients, minimum and shrinkage reinforcement, shear checks and crack control in exposed slabs.
  • Determine flat plate thickness, distribute moments by the direct design method into column and middle strips, and check punching shear and integrity reinforcement.
  • Construct interaction diagrams for tied columns by strain compatibility and check columns under combined axial load and uniaxial or biaxial bending.
  • Assess column slenderness in braced and sway frames, apply the moment magnifier method, and detail ties, spirals and splices.
  • Design isolated spread footings for bearing, one-way and two-way shear, flexure, development and load transfer, and review a complete building design for governing limit states.

Course content

12 lessons · 4 h 15 min total · final exam

  1. 1 Concrete structures and limit states design 22 min · quiz
  2. 2 Materials and design properties 22 min · quiz
  3. 3 Flexure in singly reinforced beams 23 min · quiz
  4. 4 Doubly reinforced beams and T-beams 22 min · quiz
  5. 5 Serviceability: deflection and crack control 21 min · quiz
  6. 6 Shear design of beams 22 min · quiz
  7. 7 Bond, development length and splices 23 min · quiz
  8. 8 One-way slabs 20 min · quiz
  9. 9 Two-way slabs and the direct design method 21 min · quiz
  10. 10 Short columns: axial load and bending 19 min · quiz
  11. 11 Slender columns and column detailing 20 min · quiz
  12. 12 Footings and the design capstone 20 min · quiz
  13. E Final exam 20 questions

Requirements

Recommended background. You can start any course at any time.

Description

Design of reinforced concrete beams, slabs, columns and footings to ACI 318 with ASCE 7 loads: flexure of rectangular, T and doubly reinforced sections, deflection and crack control, shear, bond and development, one-way slabs, two-way slabs by the direct design method with punching shear, column interaction diagrams and slenderness, and spread footings, applied to a municipal operations center.

Part of the Engineering stream, typically taken in year 3.