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Design of Small Dams (Water Resources Technical Publication Series)
Publisher: U. S. Government Printing Office; Third edition (November 30, 1987)
Language: English
ISBN-10: 016003373X
ISBN-13: 978-0160033735
902 pages
PDF 65 MB
Product Description
Presents instructions, standards, and procedures for use in the design of small dams.
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Soil Mechanics
(Wiley Series in Geotechnical Engineering):
T. William Lambe, Robert V. Whitman,
Wiley
ISBN: 0471511927
PDF (OCR)
576 pages
46.41 Mb
Table of Contents
Part I Introduction
Chapter 1 Soil Problems in Civil Engineering
Chapter 2 A Preview of Soil Behavior
Part II The Nature of Soil
Chapter 3 Description of an Assemblage of Particles
Chapter 4 Description of an Individual Soil Particle
Chapter 5 Normal Stress between Soil Particles
Chapter 6 Shear Resistance between Soil Particles
Chapter 7 Soil Formation
Part III Dry Soil
Chapter 8 Stresses within a Soil Mass
Chapter 9 Tests to Measure Stress-Strain Properties
Chapter 10 General Aspects of Stress-Strain Behavior
Chapter 11 Shear Strength of Cohesionless Soil
Chapter 12 Stress-Strain Relationships
Chapter 13 Earth Retaining Structures and Slopes
Chapter 14 Shallow Foundations
Chapter 15 Dynamic Loading of Soil
Part IV Soil with Water--No Flow or Steady Flow
Chapter 16 Effective Stress Concept
Chapter 17 One-Dimensional Fluid Flow
Chapter 18 Two-Dimensional Fluid Flow
Chapter 19 Soil Permeability and Filter Requirements
Chapter 20 General Aspects of Drained Stress-Strain Behavior
Chapter 21 Drained Shear Strength
Chapter 22 Stress-Strain Relations for Drained Conditions
Chapter 23 Earth Retaining Structures with Drained Conditions
Chapter 24 Earth Slopes with Drained Conditions
Chapter 25 Shallow Foundations with Drained Conditions
Part V Soil with Water--Transient Flow
Chapter 26 Pore Pressures Developed During Undrained Loading
Chapter 27 Consolidation Theory
Chapter 28 Drained and Undrained Stress-Strain Behavior
Chapter 29 Undrained Shear Strength
Chapter 30 Stress-Strain Relations for Undrained Conditions
Chapter 31 Earth Retaining Structures and Earth Slopes with UndrainedConditions
Chapter 32 Shallow Foundations with Undrained Conditions
Chapter 33 Deep Foundations
Chapter 34 The Improvement of Soil
Appendix A Symbols
Appendix B Conversion
Appendix C References
Index
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Fiber-Reinforced Polymer: Reinforcement for Concrete Structures
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Fiber-Reinforced Polymer: Reinforcement for Concrete Structures
Kiang Hwee Tan,
World Scientific Pub Co Inc
2003
ISBN: 9812384014
PDF 64,9 MB
1528 pages
Fibre-reinforced polymer (FRP) reinforcement has been used in construction as either internal or external reinforcement for concrete structures in the past decade. This two-volume text presents research findings related to the development, design and application of FRP reinforcement in construction and rehabilitation works. The topics include FRP materials, material behaviour, FRP-reinforced and prestressed members, external post-tensioning, durability and fire resistance, member behaviour under sustained loads, fatigue loads and blast loads, codes and standards, and case studies, as well as applications in other structures
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I suggest that we establish a database for specialisation of members in civilea (of which i already tried to do in introduce section but not very well received). Thus, would like to seek Admin or moderator help to realise it.
Reason for the suggestion, i would feel that there a lot of really experienced engineer with deep interest in certain field. We will know exactly who we shuld refer to if the need arise (of cos, the 'expert' members have no obligation to response). A simple answer/advise from them can save us a long time from looking at books.
And i can see most of the members (those has hinted and identified themselves) are in building industry. Even myself. Longing to learn from some expert geotechnical, hydrology, geology, highway, etc engineers.
Hope by this, admin and the moderators can introduce something so that these experts will identify themselves. and i am pretty sure that they will response if their fellow in civilea need their brief answer or some valuable advice.
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I just want to share how I check my model in etabs and correct me if I'm wrong or advice the proper way:
1.)Gravity
make a safe model for slab which is the thickness
= no. of storey x slab thicknness in etabs model
Apply the area load
=no. of storey x average area load apllied in etabs
(THE CONCEPT OF THIS IS I COMBINED ALL THE SLAB AND MODEL IT IN SAFE AS 0NE SLAB)
Reaction in etabs should almost equal to the reaction of safe.
Or, roughly compute the reaction at base manually(by tributary area method) then compare to etabs reaction result
2.) Wind
Go in show deformed shape then choose the Wx and Wy(one at a time) then click the top corner of the building then right click to see the point displacement. This value should less than to the allowable lateral deflection, in ubc H/500, H is the total height of the building.
3.) Earthquake
Actual drift should be less than to allowable drift
allowable drift= 0.7 x R x 0.020 x story height
(with the period of less 0.7second)
= 0.7 x R x 0.025 x story height
(with the period of equal or more than 0.7second)
R= overstrenght coefficient form table 16-N of UBC 97 PART 2
Based in UBC 97 code
I have less experience in high rise..I not yet try to check the drift, Anybody can discuss how to get the actual drift and what load combination used in UBC 97 code in getting the actual drift.
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Support AutoCAD DWG format from R2.5 to the version 2009
Support DWG, DXF and DWF version of AutoCAD
Preview folders and archive contents by displaying thumbnails of the DWGs on list icons
Support View Mode and Browse Mode
Markup (rectangle, ellipse, cloud markup)
Measure length and area with smart snap
Print DWG/DXF/DWF
Batch plot DWG/DXF/DWF
DWG revisions comparison
DWG to JPG, DWG to TIFF, DWG to BMP, DWG to GIF Conversion
DWG to PDF Conversion
Publishing markup in PDF or image format
Copy/paste the entire or the whole drawing into MS office as vector image
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Hydrostatically Loaded Structures
By William A. Nash
Publisher: Pergamon Press Inc
ISBN: 0080378765
edition 1995
PDF 8,2 mb
184 pages
Powered submersibles have enabled the exploration of lake and ocean depths, and are used extensively for inspection of drilling rigs and offshore pipelines. Their potential for the discovery of undersea mineral resources is widely acknowledged.
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