EDMUND FINLEY TRISHA LOWE NICK MENCHEL ANNA SLEETER 60% DESIGN PRESENTATION.

Slides:



Advertisements
Similar presentations
Space and shell structures
Advertisements

1.
Outline CH1.Introduction CH2.Preliminary Design CH3.3D Model.
Example (10.2): Redesign the stair shown in Example (10.1) if it is a cantilever type of a clear span of 1.6 m. Solution : Minimum stair thickness required.
Graduation Project Thesis: Structural Analysis & Design of “Al-Mansour Mall”
2.2 STRUCTURAL ELEMENT Reinforced Concrete Slabs
Copyright © by NCCER, Published by Pearson Education, Inc. Carpentry Fundamentals Level One Module National Center for Construction Education.
Chp12- Footings.
Parts of typical slab formwork
Design of Concrete Structure I
Prof Awad S. Hanna Concrete Structures Concrete Structures.
Lecture 9 - Flexure June 20, 2003 CVEN 444.
T6. DESIGN OF REINFORCED CONCRETE BEAM Reinforced concrete framed building T6. Design of reinforced concrete beam page 1. Alaprajz Floor plan Beam: linear.
SEMINAR IN ADVANCED STRUCTURE analysis and design of box culvert
EDT Foundation Plan Design1 Weekend Cabin Retreat Project Foundations Sacramento City College EDT 300.
VOBUG Conference August 3 rd, 2010 Nashville, Tennessee Robert LeFevre, P.E. Adam Price, P.E. Tennessee Department of Transportation Structures Division.
Overview Waffle Slab.
Reinforced Concrete QTO Design Stage 1 Preconstruction Stage 2: Procurement Conceptual Planning Stage3: Construction Stage 4: Project Close-out.
SHEAR IN BEAMS. SHEAR IN BEAMS Example (4.1): A rectangular beam has the dimensions shown in Figure 4.12.a and is loaded with a 40 ton concentrated.
Lecture Goals Slab design reinforcement.
ONE-WAY SLAB. ONE-WAY SLAB Introduction A slab is structural element whose thickness is small compared to its own length and width. Slabs are usually.
Chp.12 Cont. – Examples to design Footings
Bridge Engineering (7) Superstructure – Reinforced Concrete Bridges
Chapter 33 Foundation Systems.
Foundation Systems.
CTC 422 Design of Steel Structures
Excavating and Lifting Part 2
An-Najah National University Faculty of Engineering Civil Engineering Department Terra Santa School Structural Design and Analysis Prepared By: Bara Shawahna.
Prepared by Marcia C. Belcher Construction Engineering Technology
Slab Design.
Reinforced Concrete Design II
EXAMPLE 9.2 – Part IV PCI Bridge Design Manual
Slab Form Design.
COLUMNS. COLUMNS Introduction According to ACI Code 2.1, a structural element with a ratio of height-to least lateral dimension exceeding three used.
EDMUND FINLEY TRISHA LOWE NICK MENCHEL ANNA SLEETER BOLIVIA BRIDGE: FINAL DESIGN.
SHEAR IN BEAMS. SHEAR IN BEAMS Introduction Loads applied to beams produce bending moments, shearing forces, as shown, and in some cases torques. Beams.
1 Design and drawing of RC Structures CV61 Dr. G.S.Suresh Civil Engineering Department The National Institute of Engineering Mysore Mob:
Umm Al-Qura University Department of Civil & Structural Engineering 1 Design of reinforced concrete II Design of one-way solid slabs Lecture (1)
Plain & Reinforced Concrete-1 CE-313
FOOTINGS. FOOTINGS Introduction Footings are structural elements that transmit column or wall loads to the underlying soil below the structure. Footings.
Chapters Project title : Hirbawi Center A building lies in the east side of Tulkarm, this building consists of five stories of ( m 2 ) A building lies.
©Teaching Resource in Design of Steel Structures IIT Madras, SERC Madras, Anna Univ., INSDAG 1 COMPOSITE FLOORS - II.
Fordham Place Bronx, NY Aric Heffelfinger Structural Option Spring 2006.
6- Calculation of shear stress at composite interface: A)Under service load: Strain and stress distributions across composite beam cross- section, under.
Chapter 13 Concrete Form Design. SLAB FORM DESIGN Method WALL AND COLUMN FORM DESIGN DESIGN OF LATERAL BRACING.
Footing.
Necessary Information Required compressive strength at 28days: 30 Mpa Type of structure: mass concrete, beam, column. Maximum size of aggregate: 20 mm.
Design of One Way Slabs CE A433 – RC Design T. Bart Quimby, P.E., Ph.D. Spring 2007.
By Dr. Attaullah Shah Swedish College of Engineering and Technology Wah Cantt. Reinforced Concrete Design-6 Shear Design of Beams.
SANKALCHAND PATEL COLLEGE OF ENGINEERING,
Prof. Shrikant M. Harle Asst prof. Dept of Civil Engg PRMCEAM
Sanitary Engineering Lecture 10 Revision
Advisor: Dr. Bilal El Ariss
Footing and Foundation:
Structural Design of Technology College in Hebron University
Flat slab Structures VI.
Slender Columns and Two-way Slabs
(i) proper arrangement of reinforcing bars and
Chapter-2 Parts of Steel Bridges.
Lecture 39 - Design of Two-Way Floor Slab System
FOR 5TH SEMESTER DIPLOMA IN CIVIL ENGINEERING
Concrete Structures DR. Nabil Dmaidi.
Reinforced Concrete Design-6
Plain & Reinforced Concrete-1 CE3601
2.2 STRUCTURAL ELEMENT Reinforced Concrete Slabs
An Najah National University Submitted to : Dr.Munther Diab .
An-Najah National University
Examples on Equilibrium
OUTLINES - location & Description. Material properties.
Presentation transcript:

EDMUND FINLEY TRISHA LOWE NICK MENCHEL ANNA SLEETER 60% DESIGN PRESENTATION

30% DESIGN

TO AVOID THIS…

LIVE LOADS VehicleGross Weight (kg) Wheelbase (m) Track (approx., m) 17’ U-Haul ’ U-Haul ’ U-Haul Pick-Up Truck Standard Size Car

BEAM DESIGN LOAD CALCULATIONS Live Loads (37.5% of the weight of a 17’ U-Haul) Dead Loads (due to slab) Using beam design program, d= m (assuming 0.15 m deep slab) N N N N/m 3 m

SLAB DESIGN LOAD CALCULATIONS Widest Load Spacing, Narrowest Beam Spacing Limiting case Maximum Moment: N*m Minimum Depth: 0.15 m Designed as a beam N 23,444.7 N 24,112.2 N m 0.68 m 1.63 m 3.5 m N load is from curb 23,444.7 N load is from 37.5% of the weight of a 17’ U-Haul Truck

SLAB DESIGN CONSIDERATIONS Determined optimal beam spacing (1.90 m)  Used different track measurements Cases Considered  Each of the four vehicles centered on the span  Each of the four vehicles as far to one edge as possible  Smallest and largest vehicles with one tire centered on the span (basically the same as vehicle at edge) Checked against 0.15 m slab depth to ensure that the moment created would be safe 0.15 m was estimate for slab depth used when designing beam, so recalculation was not necessary

PIER DESIGN Designed as a wall 3.5 m x m x 2 m 2 m 3.5 m m

AMOUNT OF CONCRETE AND FILL Concrete  2 beams spanning piers, slab spanning crossing, 5 piers  Total volume: 28 cubic meters Fill  Around culverts  Total volume:

UPDATED PROFILE VIEW

PLAN VIEW

WHAT COMES NEXT Determine footing for piers Adjust pier shape if necessary Check moment calculations to ensure slabs and beams are thick enough Design armoring Design curb on slab Design reinforcement for concrete