Question

Reinforced Concrete Design

Design a rectangular beam section for the load given W(dead) =29.40kN/m, W(live) = 43.20kN/m, L1=4.82m, L2= 1.5m, use row(p)=0.18f'c/fy. Beam weight is not  included in the loads shown. fy = 414 MPa, f’c = 28 MPa. Live loads are to be placed where  they will cause the most severe conditions at the sections being considered. Select the  beam size for the largest moment (positive or negative), and then select the steel required  for maximum positive and negative moment. Assume concrete weighs 23.5 kN/m3 . Show  sketches of cross-section, including bar sizes, arrangement and spacing. Show analysis computation after the design.Screenshot_20210203_103222.jpg

0 0
Add a comment Improve this question Transcribed image text
Request Professional Answer

Request Answer!

We need at least 10 more requests to produce the answer.

0 / 10 have requested this problem solution

The more requests, the faster the answer.

Request! (Login Required)


All students who have requested the answer will be notified once they are available.
Know the answer?
Add Answer to:
Reinforced Concrete Design
Your Answer:

Post as a guest

Your Name:

What's your source?

Earn Coins

Coins can be redeemed for fabulous gifts.

Similar Homework Help Questions
  • A reinforced concrete beam with dimensions (300 mm * 800 mm) subjected to a service dead...

    A reinforced concrete beam with dimensions (300 mm * 800 mm) subjected to a service dead load moment (MD=500 kN.m) and a service live load moment (ML = 400 kN.m). Design the section as a double reinforced section (the dimensions can't be increased). Place the compression reinforcement at 65 mm from the compression face. Compressive strength of concrete; fe 28 MPa, yielding stress of reinforcement; fy= 420 MPa. Assume 30 mm to be used in the tension (two layers), 26...

  • A reinforced concrete beam with dimensions (300 mm * 800 mm) subjected to a service dead...

    A reinforced concrete beam with dimensions (300 mm * 800 mm) subjected to a service dead load moment (MD= 500 kN.m) and a service live load moment (ML = 400 kN.m). Design the section as a double reinforced section (the dimensions can't be increased). Place the compression reinforcement at 65 mm from the compression face. Compressive strength of concrete; fc = 28 MPa, yielding stress of reinforcement; fy= 420 MPa. Assume 30 mm to be used in the tension (two...

  • reinforced concrete design , ACI code Shear Strength of Flexural Members Design for shear forces The...

    reinforced concrete design , ACI code Shear Strength of Flexural Members Design for shear forces The simply supported beam shown is subjected to ultimate (factored) distributed and concentrated loads 1. Determine the shear capacity of concrete at the critical section according to ACI318-14 detailed method in Table 22.5.5.1. Design the shear reinforcement and determine the locations on the beam shear force diagram where this shear reinforcement should be placed. 2. 3. Determine the locations within the beam where minimum shear...

  • For Problems 1 and 2, design rectangular sections for the beams. Loads and Density values are...

    For Problems 1 and 2, design rectangular sections for the beams. Loads and Density values are shown. Beam weights are not included in the loads shown. Show sketches of cross sections, including bar sizes, arrangement, and spacing. Assume concrete weighs 150 lb/ft3, fy = 60,000 psi, and fc′ =4000 psi, unless given otherwise. 2. Design a cantilever beam. The loading cases are shown in Figure 2: Wp = 3 k/ft, w, = 1 kft MITIMIZ 12f- Use p= 0.1852 Figure...

  • Name: Date: 2. (+35) Design a typical interior tension-reinforced T-beam to resist positive moment. Beam dimension...

    Name: Date: 2. (+35) Design a typical interior tension-reinforced T-beam to resist positive moment. Beam dimension is given. The service loads are 150 psf dead load (doesn't include the beam weight) and 350 psf live load. The beam is on a simple span of 20 ft. Use f:=4000 psi for strength concrete and fy=60000 psi for steel reinforcement. 8-0* (typ.)

  • Assume normal concrete weight (wc = 143 lb/ft) with specified compressive strength fc = 4,000 psi,...

    Assume normal concrete weight (wc = 143 lb/ft) with specified compressive strength fc = 4,000 psi, and steel Grade 60 (fy = 60,000 psi). For design loads assume dead load wd = 30 lb/ft? (excluding self-weight) and live load we = 100 lb/ft. Finally assume that the steel percentage ratio is equal to p= 0.18fc/fy. Design an interior one-way simply supported slab with a 15 ft span using the above assumptions. Show sketches of one-way slab cross section, including reinforcing...

  • Problem 3 Assume normal concrete weight (wc = 143 lb/ft) with specified compressive strength fc =...

    Problem 3 Assume normal concrete weight (wc = 143 lb/ft) with specified compressive strength fc = 4,000 psi, and steel Grade 60 (fy = 60,000 psi). For design loads assume dead load wd = 30 lb/ft? (excluding self-weight) and live load wų = 100 lb/ft. Finally assume that the steel percentage ratio is equal to p= 0.18fc'/fy. Design an interior one-way simply supported slab with a 15 ft span using the above assumptions. Show sketches of one-way slab cross section,...

  • Problem 1 Reinforced Concrete T-Flanged Sections (50 pts.) You are required to analyze and design...

    Problem 1 Reinforced Concrete T-Flanged Sections (50 pts.) You are required to analyze and design the propped cantilever t-section from HM 4 but for shear only. Draw shear V and moment M diagrams for uniformly distributed load throughout the 30ft span and equally concentrated loads at 10ft and 30ft. Recall that the connection at the left joint N1 is fixed. The connection at 20ft N3 is a roller. The right end node N2 is a free end. Use a concrete...

  • Problem 1 Reinforced Concrete T-Flanged Sections (50 pts.) You are required to analyze and design...

    Problem 1 Reinforced Concrete T-Flanged Sections (50 pts.) You are required to analyze and design the propped cantilever t-section from HM 4 but for shear only. Draw shear V and moment M diagrams for uniformly distributed load throughout the 30ft span and equally concentrated loads at 10ft and 30ft. Recall that the connection at the left joint N1 is fixed. The connection at 20ft N3 is a roller. The right end node N2 is a free end. Usea concrete compressive...

  • Renforcement concrete design (ACI-code 2019) 2- Design the beam for the slab shown below. The beam...

    Renforcement concrete design (ACI-code 2019) 2- Design the beam for the slab shown below. The beam is carrying a service moment of 450 kN.m. Take f = 21 MPa and fy = 414 MPa. hf=75mm 1.2m 7.3 m 540 mm 300mm

ADVERTISEMENT
Free Homework Help App
Download From Google Play
Scan Your Homework
to Get Instant Free Answers
Need Online Homework Help?
Ask a Question
Get Answers For Free
Most questions answered within 3 hours.
ADVERTISEMENT
ADVERTISEMENT
ADVERTISEMENT