The floor of a heavy storage warehouse building is made of 6-in.-thick stone concrete. If the floor is a slab having a length of 15 ft and width of 10 ft, determine the resultant force caused by the dead load and the live load.
Resultant force due to dead load and live load.
Answer to Problem 1.1P
Resultant force =
Explanation of Solution
Given information:
Floor thickness
Length of the floor
The width of the floor
A dead load of the floor is calculated by multiplying the unit weight of concrete with the dimensions of the slab and the Live load for heavy storage warehouse building is taken from the ASCE-7
Calculation:
Imposed load for a heavy storage warehouse
Live load for heavy storage warehouse =
Minimum Design Dead load of stone concrete per inch
Dead load on the warehouse floor of 6 inches thick
Total load = Dead load + Live load
Resultant force
Conclusion:
The resultant force thus obtained is
Want to see more full solutions like this?
Chapter 1 Solutions
Structural Analysis (10th Edition)
Additional Engineering Textbook Solutions
Materials for Civil and Construction Engineers (4th Edition)
Foundation Design: Principles and Practices (3rd Edition)
Elementary Surveying (14th Edition)
Elementary Surveying: An Introduction To Geomatics (15th Edition)
Starting Out with Python (3rd Edition)
Starting Out with C++ from Control Structures to Objects (8th Edition)
- The floor of a classroom is made of 150mm thick lightweight concrete. If the floor slab having a length of 8m and width of 6m determine the resultant force in Kn caused by a. dead load b. live load c. total load lightweight concrete is 0.015KN/m^2 per mm thickness and classroom is 1.92KN/m^2arrow_forward3] A pre-stress concrete beam 300mmx500mm in section has a span of 6.6m and is subjected to a uniformly distributed load of 18KN/m including the self-weight of the beam. The prestressing tendons which are located at the lower third point and provide an effective prestressing force of 1060KN. Determine the extreme fiber stresses in concrete at the mid span section.arrow_forwardSituation 5. A floor slab 100 mm thick is cast monolithically with beams 300 mm wide 500 mm deep spaced 1.5 m on centers, on simple supports over a span of 6.0 m. The floor supports a superimposed service dead load of 1.77 kPa and service live load of 4.8 kPa. Using f'c 21 MPa, long bar fy = 415 MPa, calculate: 12. Factored uniform load on a typical interior beam in kN/m using load factors of 1.2 for dead load and 1.6 for live load. A. 18.68 B. 17.35 A. 1,800 B. 1,500 C. D. 13. Using a T-beam geometry formed from monolithic construction, determine the effective flange width of a typical interior beam in mm. 22.48 25.78 A. 495 B. 560 C. 1,200 D. 1,900 14. Using a T-beam geometry, determine the required area in mm² of 16-mm-dia. flexure bars for maximum ultimate bending. C. D. 620 448arrow_forward
- Situation 1: A concrete overhang beam with the section shown is to support a 150 mm thick concrete slab with a tributary width of 2.70 m. The beam also supports a 3.20 m height of 100 mm thick concrete partition wall. Unit weight of concrete is taken to be 24 kN/m³. Determine the dead load in kN per meter length of beam and determine the maximum fiber stresses (tensile & compressive) due to the imposed dead loads. Draw the complete V&M diagrams. -wall 300 mm 120 mm slab 1.2 m 4.8 m 360 mmarrow_forwardSituation 1: A concrete overhang beam with the section shown is to support a 150 mm thick concrete slab with a tributary width of 2.70 m. The beam also supports a 3.20 m height of 100 mm thick concrete partition wall. Unit weight of concrete is taken to be 24 kN/m³. Determine the dead load in kN per meter length of beam and determine the maximum fiber stresses (tensile & compressive) due to the imposed dead loads. Draw the complete V&M diagrams. 14 b1 300 mm b3 10.0m G1 120 mm 360 mm LIBRARY Situation 2: Shown below is a floor plan of the library, office and balcony at the second floor level of a condo unit. Use the floor live loads for the given areas: Library area, LL = 5.60 kPa; for Office, LL = 3.20 kPa; and for the Balcony, LL = 2.40 kPa. Determine the live load intensity and load condition to be applied on each member (b1,b2, b3, b4, b5, G1, G2, & G3. Determine also the internal shear and internal moment at the midspan of girder G2. BALCONY G2 G3 4.0m b2 b4 1.2 m FLOOR PLAN 8.0m…arrow_forwardThe intensity of load effect on the structure is based on A. Load factor B. Load effect C. Return period C. All answer are wrongarrow_forward
- A concrete overhang beam with the section shown is to support a 150 mm thick concrete slab with a tributary width of 2.70 m. The beam also supports a 3.20 m height of 100 mm thick concrete partition wall. Unit weight of concrete is taken to be 24 kN/m^3. Determine the dead load in kN per meter length of beam and determine the maximum fiber stresses (tensile & compressive) due to the imposed dead loads. Draw the complete V&M diagrams. -wall 300 mm 120 mm slab 1.2 m 4.8 m 360 mmarrow_forwardThe floor of a classroom is made of 150-mm thick lightweight concrete. If the floor is a slab having a length of 8m and width of 6m, determine the resultant force (in KN) caused by the dead load, the live load, and the total load. Note: lightweight concrete is 0.015KN/m2 per mm thickness & classroom is 1.92KN/m2arrow_forwardA rectangular concrete beam of cross section 100mm wide and 400mm deep is prestressed by a straight cable of span 6m, imposed load is 3.14kn/m, area is 36×10³mm²(Z=18×105mm³). Calculate working moment assuming the self weight of concrete as 24kn/m³?arrow_forward
- Question 5 A rectangular presressed concrete beam of span 15 m and width 500 mm is loaded with a live load of 30 kN/m. The prestressing force is KN. [Take permissible stresses in concrete and steel as 15 MPa and 1200 MPa respectively]arrow_forwardA floor slab 100 mm thick is cast monollthically with beams 250 mm wide 450 mm deepspaced 1.2 m on centers, on simple supports over a span of 5.0 m. The floor supports asuperimposed service dead load of 1.0 kPa and service live load of 2.1 kPa. Using f.=21MPa, long bar f, = 415 MPa, calculate the following:Factored uniform load on a typical interior beam in kN/m using load factors of 1.2for dead load and 1.6 for live load.A. 8.928B. 11.448C. 11.028D. 9.960Effective flange width of a typical interior beam in mm.A. 1,500B. 1.850C. 1.200D. 1.466Required amount of 16-mm-flexure bars for a typical interior beam in positivebending. Use 10-mm-dia. stirrupsA. 512 mm2B. 246 mm2C. 331 mm2D. 427 mm2arrow_forward??arrow_forward
- Structural Analysis (10th Edition)Civil EngineeringISBN:9780134610672Author:Russell C. HibbelerPublisher:PEARSONPrinciples of Foundation Engineering (MindTap Cou...Civil EngineeringISBN:9781337705028Author:Braja M. Das, Nagaratnam SivakuganPublisher:Cengage Learning
- Fundamentals of Structural AnalysisCivil EngineeringISBN:9780073398006Author:Kenneth M. Leet Emeritus, Chia-Ming Uang, Joel LanningPublisher:McGraw-Hill EducationTraffic and Highway EngineeringCivil EngineeringISBN:9781305156241Author:Garber, Nicholas J.Publisher:Cengage Learning