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Solved Example on Height of Instrument Method: Explained in animations and sketch illustrations
5:07
Solved Example on Height of Instrument Method: Explained in animations and sketch illustrations
Methods of Levelling: Height of Instrument and Rise and Fall Method
10:24
Methods of Levelling: Height of Instrument and Rise and Fall Method
Principle of Levelling & Equipment Required for Levelling, Explanation using 3D Animations
7:07
Principle of Levelling & Equipment Required for Levelling, Explanation using 3D Animations
Levelling: An introduction and basic terms used in Levelling (Explanation using 3D animations)
7:21
Levelling: An introduction and basic terms used in Levelling (Explanation using 3D animations)
Problem 9-62 Determine the normal & shear stresses that act perpendicular and parallel to the grains
7:11
Problem 9-62 Determine the normal & shear stresses that act perpendicular and parallel to the grains
Problem 2-58: Determine the magnitude and direction θ of F so that the resultant force directed x'
4:48
Problem 2-58: Determine the magnitude and direction θ of F so that the resultant force directed x'
Problem 2-48: Determine the magnitude and direction θ of F1 so that the resultant force directed x'
7:28
Problem 2-48: Determine the magnitude and direction θ of F1 so that the resultant force directed x'
Problem 2-46: Determine the magnitude and orientation θ of FB so that the resultant force is 1500 N.
3:18
Problem 2-46: Determine the magnitude and orientation θ of FB so that the resultant force is 1500 N.
Problem 9-51 Determine (a) principal stresses and (b) maximum in-plane shear stress by Mohr's Circle
12:34
Problem 9-51 Determine (a) principal stresses and (b) maximum in-plane shear stress by Mohr's Circle
Problem 2-44: Determine the required magnitude of F3 expressed in terms of F1 and the angle θ.
6:55
Problem 2-44: Determine the required magnitude of F3 expressed in terms of F1 and the angle θ.
Problem 2-43 Determine the magnitude of resultant force & its direction, measured counterclockwise
7:43
Problem 2-43 Determine the magnitude of resultant force & its direction, measured counterclockwise
Problem 2-41 Determine the magnitude of resultant force & its direction, measured counterclockwise
4:54
Problem 2-41 Determine the magnitude of resultant force & its direction, measured counterclockwise
Problem 2-37 Determine the magnitude of the resultant force acting on gusset plate and its direction
5:12
Problem 2-37 Determine the magnitude of the resultant force acting on gusset plate and its direction
Omitted measurement in Surveying: Determining length of two different lines in close travrs (Case 3)
7:12
Omitted measurement in Surveying: Determining length of two different lines in close travrs (Case 3)
Problem 2-26 & 2-27 Determine magnitude & direction θ of FA & Resultant force acting on ring at O
7:17
Problem 2-26 & 2-27 Determine magnitude & direction θ of FA & Resultant force acting on ring at O
Omitted measurement in Surveying: Determining length of one line and bearing of other line (Case 2)
11:03
Omitted measurement in Surveying: Determining length of one line and bearing of other line (Case 2)
Problem 2-4 Determine the magnitudes of two components of F along members AB and AC. Set F = 500 N.
5:06
Problem 2-4 Determine the magnitudes of two components of F along members AB and AC. Set F = 500 N.
Problem 2-3 Determine the angle θ and magnitude of F, resultant force 750N is directed vertically up
6:02
Problem 2-3 Determine the angle θ and magnitude of F, resultant force 750N is directed vertically up
Omitted measurement in Surveying: Determining length and bearing of same line (Case 1)
12:19
Omitted measurement in Surveying: Determining length and bearing of same line (Case 1)
Solved Example of Vertical Curve (Sag Curve): Complete calculations of vertical parabolic curve
12:52
Solved Example of Vertical Curve (Sag Curve): Complete calculations of vertical parabolic curve
Problem 2-2 Determine the magnitude of the resultant force FR = F1 - F2 and its orientation u x-axis
6:00
Problem 2-2 Determine the magnitude of the resultant force FR = F1 - F2 and its orientation u x-axis
Problem 2-1 Determine the magnitude of the resultant force FR = F1 + F2 and its orientation u x-axis
6:54
Problem 2-1 Determine the magnitude of the resultant force FR = F1 + F2 and its orientation u x-axis
Solved Example on Reverse Curve; Setting out of reverse curve using deflection angle method (Part-2)
9:25
Solved Example on Reverse Curve; Setting out of reverse curve using deflection angle method (Part-2)
Solved Example on Reverse Curve; Calculating basic data for setting out of reverse curve (Part-1)
10:06
Solved Example on Reverse Curve; Calculating basic data for setting out of reverse curve (Part-1)
Reverse Curve: An introduction, notations & calculations required for setting out a reverse curve
7:06
Reverse Curve: An introduction, notations & calculations required for setting out a reverse curve
Problem 9-46 Determine the stress components acting on the inclined plane AB by Mohr's Circle Method
9:48
Problem 9-46 Determine the stress components acting on the inclined plane AB by Mohr's Circle Method
Problem 9-45 Determine the stress components acting on the inclined plane AB by Mohr's Circle Method
7:41
Problem 9-45 Determine the stress components acting on the inclined plane AB by Mohr's Circle Method
Problem 9-22 Determine the stress components acting on the plane AB. By Mohr's Circle Method
10:43
Problem 9-22 Determine the stress components acting on the plane AB. By Mohr's Circle Method
Problem 1-78 Determine the required minimum diameter of pins B and C. Failure shear stress is given
8:36
Problem 1-78 Determine the required minimum diameter of pins B and C. Failure shear stress is given
Problem 1-56 Determine the angle (Theta) if avg: normal stress is equivalent in each AB and BC rod
7:44
Problem 1-56 Determine the angle (Theta) if avg: normal stress is equivalent in each AB and BC rod