Figure1 of 1The pole is subjected to the forc F which has components F, = 1.3 kN and F = 1.45 kN. If 8-71, determinethe magnitude of Fy (Figure 1)Express your answer with the appropriate units.F,- ValueSubmitPart BHÁBequest AnswerSubmitDetermine the magnitude of FExpress your answer with the appropriate units.HÅF- ValueRequest AnswerRequest Answer< Return to AssignmentUnitsPearsonUnitsProvide Feedback??

Given forces in x and z direction. Required- F and Fy.

1 The pole is subjected to the forc F which has components F, = 1.3 kN and F, =1.45 kN. If 8-71", determine the magnitude of F, (Egure 1) Express your answer with the appropriate units. Submit Part B μÀ Value Request Ander RA Determine the magnitude of F. Express your answer with the appropriate units. Value Units Request Answer Submit Request Answer 8? Units < Return to Assignment Provide Feedback ?

1 The pole is subjected to the forc F which has components F, = 1.3 kN and F, =1.45 kN. If 8-71", determine the magnitude of F, (Egure 1) Express your answer with the appropriate units. Submit Part B μÀ Value Request Ander RA Determine the magnitude of F. Express your answer with the appropriate units. Value Units Request Answer Submit Request Answer 8? Units < Return to Assignment Provide Feedback ?

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

Similar questions

The Bulk Modulus of 1 kg of water is 2.2 GPa. If the percentage reduction in volume is 6%, determine the pressure applied. Express your answer in the appropriate SI unit Round off ONLY the final result to three decimal places as applicable.
he region of safety in maximum shear stress theory contains which of the given shape *
mechanics of deformable bodies The cylindrical tank has an outer radius of 1.5m and a wall thickness of 25 mm. If the tank is pressurized to 1.5 MPa, determine the longitudinal stress.
A cylindrical pressure vessel has an inner diameter of 4 ft and a thicknessof 1 2 in. Determine the maximum internal pressure it can sustain so that neither its circumferential nor its longitudinal stress component exceeds 20 ksi. Under the same conditions, what is the maximum internal pressure that a similar-size spherical vessel can sustain?
Evaluate the following to three significant figures and express each answer in SI units using an appropriate prefix:(212 mN)^2
The cylinder CD of the assembly is heated from T1 = 30°C to T2 = 180°C using electrical resistance. Also, the two end rods AB and EF are heated from T1 = 30°C to T2 = 50°C. At the lower temperature T1 the gap between C and the rigid bar is 0.7 mm. Determine the force in rods AB and EF caused by the increase in temperature. Rods AB and EF are made of steel, and each has a cross-sectional area of 125 mm2. CD is made of aluminum and has a cross-sectional area of 375 mm2. Est = 200 GPa, Eal = 70 GPa, ast = 12(10-6)>°C, and aal = 23(10-6)>°C.
The device is used to measure a change in temperature. Bars AB and CD are made of A-36 steel and 2014-T6 aluminum alloy, respectively. When the temperature is at 75°F, ACE is in the horizontal position. Determine thevertical displacement of the pointer at E when the temperature rises to 150°F.
A 4-ft diameter spherical tank is subjected to an internal pressure of 12 psf. If the wall thickness is 0.38", determine the tangential stress of the wall in psi.
For the given state of stress, determine (a) the principal planes, (b) the principal stresses, (c) the orientationof the planes of maximum shear stress, (d) maximum shear stress, (e) the corresponding normal stress.
A thick-walled cylinder has an outer and inner diameter of 200 and 50 mm, respectively. The cylinder is designed to store fluid at 80 MPa:(a) Determine the external pressure necessary to bring the hoop stress at the outer wall of the cylinder to zero. (b) Draw the variations of the hoop and radial stress across the thickness of the wall. Indicate the stress values at both inner and outer radii.
ANSWER: h0.26916 m Show the complete solution.
A smooth-walled 100 mm edge steel bucket is filled with rubber to form a rubber bucket embedded within the steel bucket. If the rubber hub is compressed by a 100 kN force, determine: a) The normal contact stress between the rubber and the inner walls of the steel. b) The change in volume experienced by the rubber bucket. Consider the following: - The steel bucket is rigid. - There is no friction between the smooth walls of the steel bucket and the rubber (shear stress equal to zero between steel and rubber). - Rubber properties: E = 4 MPa and v = 0.45.