Q2-A wall bracket as shown in figure below, is subjected to a pull load of P=45KN at 60° to the vertical. The cross section ofbracket is rectangular having b=3t. Determine the dimensions b and t if the stress in the material of the bracket is limited to 28MPA. (Use Tresca Method to solve). 120 A 60 60

Q2-A wall bracket as shown in figure below, is subjected to a pull load of P=45KN at 60° to the vertical. The cross section ofbracket is rectangular having b=3t. Determine the dimensions b and t if the stress in the material of the bracket is limited to 28MPA. (Use Tresca Method to solve). 120 A 60 60

Elements Of Electromagnetics

7th Edition

ISBN:9780190698614

Author:Sadiku, Matthew N. O.

Publisher:Sadiku, Matthew N. O.

ChapterMA: Math Assessment

Section: Chapter Questions

Problem 1.1MA

See similar textbooks

Related questions

Q: 75 mm When a force P of 750 N is applied to the pedal shown in the figure, find the diameter (mm) of…

A: Given data: The applied force, P = 750 N. The shear stress in the pin, τ = 40 MPa. Draw the…

Q: 1 Awall bracket, as shown in Fig, is subjected to a force P = 5 kN, The cross-section of bracket is…

Q: A compression load of P = 55 kips is applied to a 3 in. by 3 in. square post, as shown. Determine…

Q: Q#4: An aluminum rod is rigidly attached between a steel rod and a bronze rod as shown in Figure.…

Q: Two holes have been formed through a steel bar and a centered axial load is applied as shown in the…

A: Given: P = 32 kN Diameter of hole A = 20 mm Diameter of hole B = 50 mm The steel bar is = 100 x 15…

Q: A steel bar with a diameter of 100 mm is rigidly attached to the wall and carries the loads shown in…

A: Given: The diameter of shaft, d = 100 mm = 0.1 m The torque acting on the shaft, T = 8 kN.m The load…

Q: The rigid bar ABC supports a load of 21.1 kN at point C. A circular rod (diameter 25 mm) supports…

A: Given:

Q: H.W: 1 rod as shown in Fig. P-108. Axial loads are applied at the positions indicated. Find the…

Q: A homogenous rigid block subjected to the loading shown in figure is supported by three steel rod…

A: Given: Diameter of steel rod, d=25 mm

Q: A rod is composed of an aluminum section rigidly attached between steel and bronze sections, as…

Q: Determine the maximum axial force P that can be applied to the flat steel plate, shown in Figure 3.…

Q: The figure below are 2 solid cylindrical bars joined together at point B. Find the required minimum…

Q: In the figure, the column is under the effect of a load of P = 16 kN. Find the stress at point A…

Q: 1. In the figure shown, determine the diameter of the rod C if the allowable stress 86.60 MPa.…

Q: stress in the segment QR

A: Given; A bar having cross-sectional area(A)=700 mm2Various loads at the positions indicated at the…

Q: Determine the stress developed in the Tensional Cord given that the cable's diameter is 0.6 inches…

A: Given data: Weight of the bar, W = 6000 lb. Cable diameter, d = 0.6 in. Draw a free-body diagram…

Q: The member, shown in the figure, is under tensile load of P=15 kN. The member has uniform thickness…

Q: 800 N 120 N.m d = 8 cm 600 N Q /If the cross section of the femur can be approximated as a circular…

A: Stress due to eccentric axial load of 800N P1=P2=800N P2 and 800N will create a moment M=800(0.8)=64…

Q: For the figure shown determine the value of the maximum normal stresses, due to the change of…

A: Calculate the reaction at the left end support as follows, RL=10×250+5050+500+250+50RL=3.53 kN,…

Q: Q15. The rigid bar is supported by steel rods (E - 200,000 MPa) (AB, CD and EF) and hinge as shown…

Q: –L2 H K F1 L1 F2

Q: 1)In a thin plate, the state of stress prevails according to the figure. Calculate the principal…

A: Only one question is allowed to solve as per the guidelines.

Q: The assembly shown in figure (5) consists of two posts AD and CF made of a steel (Ast= 1000 mm2, Est…

Q: Formül; gab'G' 25 için q =-(1– 0,630b/a) M-(Izy.z- ly -y) + My(1.z– Izy.y) I4.ly – Izy² Ox + Øy, TL…

A: P1=600 NL1=14 cmL2=10 cmR=10mm D=20 mm or.02 mT=600×.14T=84 NmBM=600×.10BM=60 Nm

Q: If the maximum stress both in tension and compression is not to exceed 120 Mpa, determine the…

A: Step 1: Step 2: Step 3: Step 4:

Q: Three parallel vertical rods of equal length (L-2m) support a rigid beam AB to which a force…

Q: 50 KN is applied in the center of the block on the top. The area of the cross section at AB and CD…

Q: Determine the shear stress in pin A shown in the figure below. The load, P is equal to 10 kN. All…

Q: 5 KN / m A SIMPLE STRESSES 5 KN / m D 50 KN-m 5 KN / m F E 2. Points C and D of the 1.00 1.00 1.00…

Q: SN= 50 lbs FN= 104 kips

A: To find stress in cable CD

Q: 8000 lb 3000 lb 7000 lb 2000 lb 4' 5' 3' Fig. P-208 and P-209. up (73 208. An aluminum bar having a…

A: To find: The total deformation. Give: The Young's modulus is E=10×106 psi. The cross sectional area…

Q: C. For the figure shown below, if the stress in steel and bronze are not exceeding 150MPA and 70MPA…

Q: In the figure below, A 50 mm shaft is subjected to a reversed load P= 2700 N. Find the length (L),…

Q: Bronze Aluminum Steel A=400 mm2 A=600 mm A=300 mm2 2P ЗР 4P 3m 5m- -4m-

Q: The bracket shown in the figure below is fixed supported and has an applied force of 5kip with 40…

Concept explainers

Axial Load

When a bar of the uniform cross-section is acted by a load, such that the load acts along the longitudinal axis of the bar, such kinds of loadings are known as axial loadings. In general terms, a load is an external force acting on a component. An axial load acts perpendicular to the geometric cross-section of the component. Based on the direction of the application of the load, an axial load can be tensile or compressive. The analysis of bodies under the action of axial loads is generally studied under the branch of mechanics, known as statics.

Question

Q2-A wall bracket as shown in figure below, is subjected to a pull load of
P=45KN at 60° to the vertical. The cross section ofbracket is rectangular having
b=3t. Determine the dimensions b and t if the stress in the material of the
bracket is limited to 28MPA. (Use Tresca Method to solve).
120
A
60
60°
b--
All dimensions in mm.
Figure (2)

Expert Solution

This question has been solved!

Explore an expertly crafted, step-by-step solution for a thorough understanding of key concepts.

This is a popular solution!

SEE SOLUTION Check out a sample Q&A here

Step 1

VIEW

Step 2

VIEW

Step 3

VIEW

Trending now

This is a popular solution!

Step by step

Solved in 3 steps with 1 images

SEE SOLUTION Check out a sample Q&A here

Knowledge Booster

Learn more about

Need a deep-dive on the concept behind this application? Look no further. Learn more about this topic, mechanical-engineering and related others by exploring similar questions and additional content below.

Similar questions

Determine the nodal displacements and the element stresses. E = 105 GPa, v = 0.3, and t = 5 mm. You don't have to calculate everything manually, but can write a code to get some input from you and find the stiffness matrices for instance. 400 mm 3 5 400 mm 30 kN 2
2. Refer to the figure below. In addition to the load at point D, if another load Q (Q=10F) along x direction acts at the center of the right end section of bar OABC, solve for the maximum load F with a safety factor of 2.0 using the maximum shear stress theory. Find the stresses at the origin point O. Assume the yield strength of the steel is 42 kpsi with v=0.3. Hints: The centroid of a semicircle lies at a distance of 4r/(3) measured along the vertical radius (r) or y-direction. 2 in. 1-in D. -in R. 1-in D. 12 in 15 in 1-in D.
Vertical load is applied to point B of a 10 mm radius cylindrical bar as shown in the figure. Calculate the shear stress occurring in the point.
Find the stresses in each direction, also find the change in volume of the block of dimension 110 mm x 40 mm x 43 mm, subjected to 3 mutually perpendicular loads. The load along length, breadth and depth directions are 10 kN (tensile), 25 kN (compressive), 22 kN (compressive) respectively. Take E as 120 GPa, Poisson's ratio as 0.3 (figure - 0.5 mark, calculation - 1.5 marks, solution - 2 marks) (ENTER ONLY THE VALUES IN THE BOXES BY REFERRING THE UNIT GIVEN IN BRACKET & UPLOAD YOUR HAND WRITTEN ANSWERS IN THE LINK PROVIDED) The stress along length direction (Unit in MN/m2)= The compressive stress along width direction (Unit in MN/m2?)=, The compressive stress along depth direction (Unit in MN/m?)= The change in volume of the block is (unit in mm)
When a force P of 750 N is applied to the pedal shown in the figure, find the diameter (mm) of this pin so that the resulting shear stress at the pin C is 40 MPa.
Based on the figure below, a pin supports a bar at Z and a cable supports X to Y around W. Determine the stress in the cable in megapascal with a diameter of 0.68 inch and a weight of 1,550 pounds. a = = 1 ft b= 3 ft c = 10 ft X bft Y W aft cft Z
ANSWER ASAAAAP PLS
Rigid member AC is supported by a pin at A and the vertical steel link BD as shown. The diameter of the link and its length are given in the table below for cach student. The alloawble stress of link BD is 200 MPa. a) Determine the maximum possible value of the load P b) If P-90 kN, determine the change in temperature needed for link BD to have no change in length. Given Me=12*10/"C, E,200 GPa B A 0.4m 0.2m
مقاومة المواد
Need help on c ,d and e Engineering of Materials
Find the stresses in each section and total change in length of the bar as shown in figure. The bar is subjected to an axial pull of 24 kN. Take the diameter of section 1 as 56 mm, length L1 as 44 mm, ,the dimensions of section 2 as 65 mm x 63 mm, L2 as 16 mm, section 3 is a square of size 30 mm, length L3 as 50 mm. Also take the Young’s modulus of sections as E1 = 2.1x105 N/mm2, E2 = 1.1x105 N/mm2, E3 = 0.75x105 N/mm2 (i) Stress in section 1 (unit in N/mm2) is = Answer for part 1 (ii) Stress in section 2 (unit in N/mm2) is = Answer for part 2 (iii) Stress in section 3 (unit in N/mm2) is = Answer for part 3 (iv) Total Change in length of the given bar (unit in mm) is =
@2 The support consists of solid brass post surrounded by a steel tube. Before the load is applied, the gap between these two parts is | mm. Given the dimensions shown in the figure, determine the greatest axial load that can be applied 0 the rigid cap A if the maximum allowable stress in brass is (Guiin)se = 150 MPa and the maximum allowable stress in steel is (Gun ) = 200 MPa. E, = 200 GPa and Ey,= 100GPa.