Please Solve #27/28 correctly!!!
* #27 is NOT 0.786 MPa
* #28 is NOT 500.023 mm
attached is work for #24-26 if needed for #27/28
attached is previous #27/28 submission that was incorrect
Please Solve #27/28 correctly!!! * #27 is NOT 0.786 MPa * #28 is NOT 500.023 mm...
#27, #31 & #35 Only In Exercises 27-38, solve each equation for θ in the i [0°, 360°). If necessary, write your answer to the ne of a degree. nearest tenth tenth 4 sin 2θ 28, 1 27/ 3 cos 29-1 30. 2 sin 30 12 32. 4 cos 30 1 0 2 29, 2 cos3θ + 1 31. 3 sin 30 +10 34. 2 cos V3 0 33. 2 sin1 0 35 2 sec 20 +37
(A) 8 mm 100 mm Problem 1 (20 pts): Stress Concentrations Consider the flat bar with shoulder joints shown in Fig. A which is subjected to a tensile force P = 58 kN. The bar is made of Aluminum 6061 having maximum tensile strength Omax = 290 MPa. NOTE: plots of stress concentration factors for different types of loading can be found on page 6. (a) Determine the radius r [mm] for the fillets. (b) An identical flat bar shown...
(A) Smin 100 mm Problem 1 (20 pts): Stress Concentrations Consider the flat bar with shoulder joints shown in Fig. A which is subjected to a tensile force P = 58 kN. The bar is made of Aluminum 6061 having maximum tensile strength Omax = 290 MPa. NOTE: plots of stress concentration factors for different types of loading can be found on page 6 (a) Determine the radius r [mm] for the fillets. (b) An identical flat bar shown in...
S = 200 kpsi A steel shaft in bending has an ultimate strength of 690 MPa and a shoulder with a filler radius of 3 mm connecting a 32 mm diameter with a 38 mm diameter. Estimate the fatigue stress concentration factor, Kf, using Figure 6-20. 0 0.5 1.0 3.0 3.5 4.0 1.0 Notch radius r, mm 1.5 2.0 2.5 (1.4 GPa) (1.0) (0.7) 0.8 150 (0.4) 100 0.6 60 Notch sensitivity a 0.4 Steels Alum, alloy 0.2 0 0...
A steel shaft in bending has an ultimate strength of 1400 MPa and a shoulder with a filler radius of 0.5 mm connecting an 18 mm diameter with a 19 mm diameter. Estimate the fatigue stress concentration factor, Kf, using Figure 6-20, 0 0.5 1.0 3.0 3.5 4.0 Notch radius r, mm 1.5 2.0 2.5 (1.4 GPa) (1.0) 1.0 Su = 200 kpsi (0.7) 0.8 150 (0.4) 100 0.6 60 Notch sensitivity 9 0.4 Steels Alum, alloy 0.2 0 0...
Rotational Dynamics Assignment (200 Points) • Due Friday, July 31 at 5:00 pm Equations are in a separate document entitled “Equations for Rotational Dynamics Assignment” • Moments of inertia formulas are provided on the last page of this document • Show all of your work when solving equations. It is not sufficient to merely have a correct numerical answer. You need to have used legitimate equations and algebra. You also need to have correctly used the data. • Units must...
Material Steel Aluminum Table 1: Properties of Materials ET GI ση ksi TGPaksi GPa Iksi MPa 107F 107 29(109) 200 11(10) 77 90 600 6.5 12 10(109) 67 3.8(10%) 26 40 270 1 3 2 3 10.28 0.33 Equation Sheet for Midterm Exam 1 -= 7=64 s-les-Et tany z2 = -=[ Er = a(AT) 0 = Eer p = EyL 06 = 0, casº o = 3 (1 + cos 20) == -sin® cos = (sin 20) U =w =...
please show all work 2. (12 pts) A shaft w ith a step in diameter is made of SAE 1045 steel. It is required to withstand 107 cycles kN. The shaft has 2(a), di 25 mm, d2-30 mhm, and ρ :0.625 mm. Use Peterson's fitted on (equation below) for a value of a. Modification factors shall be applied for the following of an axial force amplitude P, 16kN applied along with a mean force of Pm dimensions, as in Figu...
We Part (a) [2 marks] The angular displacement of the rigid body ranges from θ = 0° (the vertical as shown in the figure) to θ = 135° and can be modelled using simple harmonic motion. Assuming a rate of 20 [reps/min], write down an expression for angular displacement, θ [rad] as a function of time, t [s]. You may assume that the motion starts with an angular displacement of 135°. Hint: The angular displacement, θ can be expressed as...
We wish to determine the moment at the shoulder that is required to perform the arm motion (shoulder abduction) depicted in Figure 3 below. This motion may be modelled with a simple, single- element linkage system as shown in the figure. The shoulder joint is represented by a simple pin support centred at O. The arm and the carried weight are represented as a rigid body consisting of a rod and a cuboid. In the rigid body model, the length...