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engineering
mechanical engineering
Shigleys Mechanical Engineering Design 9th edition Richard G. Budynas, J. Keith Nisbett - Solutions
A part is loaded with a combination of bending, axial, and torsion such that the following stresses are created at a particular location:Bending: ..Completely reversed, with a maximum stress of 60 MPaAxial: ....Constant stress of 20 MPaTorsion: ...Repeated load, varying from 0 MPa to 50 MPaAssume
Repeat the requirements of Prob. 6–35 with the following loading conditions:Bending: ... Fluctuating stress from –40 MPa to 150 MPaAxial: ... NoneTorsion: .. Mean stress of 90 MPa, with an alternating stress of 10 percent of the mean stressProb. 6–35, A part is loaded with a combination of
For the problem specified in the table, build upon the results of the original problem to determine the minimum factor of safety for fatigue based on infinite life. The shaft rotates at a constant speed, has a constant diameter, and is made from cold-drawn AISI 1018 steel.Problem 3€“68, A
For the problem specified in the table, build upon the results of the original problem to determine the minimum factor of safety for fatigue based on infinite life. The shaft rotates at a constant speed, has a constant diameter, and is made from cold-drawn AISI 1018 steel.Problem 3€“69, A
For the problem specified in the table, build upon the results of the original problem to determine the minimum factor of safety for fatigue based on infinite life. The shaft rotates at a constant speed, has a constant diameter, and is made from cold-drawn AISI 1018 steel.Problem 3€“70, A
For the problem specified in the table, build upon the results of the original problem to determine the minimum factor of safety for fatigue based on infinite life. The shaft rotates at a constant speed, has a constant diameter, and is made from cold-drawn AISI 1018 steel.Problem 3€“71, A
For the problem specified in the table, build upon the results of the original problem to determine the minimum factor of safety for fatigue based on infinite life. The shaft rotates at a constant speed, has a constant diameter, and is made from cold-drawn AISI 1018 steel.Problem 3€“72, A
For the problem specified in the table, build upon the results of the original problem to determine the minimum factor of safety for fatigue based on infinite life. The shaft rotates at a constant speed, has a constant diameter, and is made from cold-drawn AISI 1018 steel.Problem 3-73, A gear
For the problem specified in the table, build upon the results of the original problem to determine the minimum factor of safety for fatigue based on infinite life. The shaft rotates at a constant speed, has a constant diameter, and is made from cold-drawn AISI 1018 steel.Problem 3-74, In the
For the problem specified in the table, build upon the results of the original problem to determine the minimum factor of safety for fatigue based on infinite life. The shaft rotates at a constant speed, has a constant diameter, and is made from cold-drawn AISI 1018 steel.Problem 3-76, Repeat the
For the problem specified in the table, build upon the results of the original problem to determine the minimum factor of safety for fatigue based on infinite life. The shaft rotates at a constant speed, has a constant diameter, and is made from cold-drawn AISI 1018 steel.Problem 3-77, A torque T =
For the problem specified in the table, build upon the results of the original problem to determine the minimum factor of safety for fatigue based on infinite life. The shaft rotates at a constant speed, has a constant diameter, and is made from cold-drawn AISI 1018 steel.Problem 3-79, Repeat Prob.
For the problem specified in the table, build upon the results of the original problem to determine the minimum factor of safety for fatigue based on infinite life. If the life is not infinite, estimate the number of cycles. The force F is applied as a repeated load. The material is AISI 1018 CD
For the problem specified in the table, build upon the results of the original problem to determine the minimum factor of safety for fatigue based on infinite life. If the life is not infinite, estimate the number of cycles. The force F is applied as a repeated load. The material is AISI 1018 CD
For the problem specified in the table, build upon the results of the original problem to determine the minimum factor of safety for fatigue based on infinite life. If the life is not infinite, estimate the number of cycles. The force F is applied as a repeated load. The material is AISI 1018 CD
For the problem specified in the table, build upon the results of the original problem to determine the minimum factor of safety for fatigue based on infinite life. If the life is not infinite, estimate the number of cycles. The force F is applied as a repeated load. The material is AISI 1018 CD
For the problem specified in the table, build upon the results of the original problem to determine the minimum factor of safety for fatigue at point A, based on infinite life. If the life is not infinite, estimate the number of cycles. The force F is applied as a repeated load. The material is
For the problem specified in the table, build upon the results of the original problem to determine the minimum factor of safety for fatigue at point A, based on infinite life. If the life is not infinite, estimate the number of cycles. The force F is applied as a repeated load. The material is
For the problem specified in the table, build upon the results of the original problem to determine the minimum factor of safety for fatigue at point A, based on infinite life. If the life is not infinite, estimate the number of cycles. The force F is applied as a repeated load. The material is
Solve Prob. 6–17 except include a steady torque of 2500 lbf · in being transmitted through the shaft between the points of application of the forces.In Prob. 6–17, The shaft shown in the figure is machined from AISI 1040 CD steel. The shaft rotates at 1600 rpm and is supported in
Solve Prob. 6–18 except include a steady torque of 2200 lbf · in being transmitted through the shaft between the points of application of the forces.Prob. 6–18, Solve Prob. 6–17 except with forces F1 = 1200 lbf and F2 = 2400 lbf.Prob. 6–17, The shaft shown in the
In the figure shown, shaft A, made of AISI 1020 hot-rolled steel, is welded to a fixed support and is subjected to loading by equal and opposite forces F via shaft B.A theoretical stress-concentration factor Kt s of 1.6 is induced by the 1/8-in fillet. The length of shaft A from the fixed support
A schematic of a clutch-testing machine is shown. The steel shaft rotates at a constant speed ω. An axial load is applied to the shaft and is cycled from zero to P. The torque T induced by the clutch face onto the shaft is given byT = f P(D + d)/4Where D and d are defined in the figure and f is
For the clutch of Prob. 6–57, the external load P is cycled between 4.5 kips and 18 kips. Assuming that the shaft is rotating synchronous with the external load cycle, estimate the number of cycles to failure. Use the modified Goodman fatigue failure criteria.In Prob. 6–57, A
A flat leaf spring has fluctuating stress of σmax = 360 MPa and σmin = 160 MPa applied for 8 (104) cycles. If the load changes to σmax = 320 MPa and σmin = −200 MPa, how many cycles should the spring survive? The material is AISI 1020 CD and has a fully corrected endurance strength of Se =
A rotating-beam specimen with an endurance limit of 50 kpsi and an ultimate strength of 140 kpsi is cycled 20 percent of the time at 95 kpsi, 50 percent at 80 kpsi, and 30 percent at 65 kpsi. Let f = 0.8 and estimate the number of cycles to failure.
A machine part will be cycled at ±350 MPa for 5 (103) cycles. Then the loading will be changed to ± 260 MPa for 5 (104) cycles. Finally, the load will be changed to ±225 MPa. How many cycles of operation can be expected at this stress level? For the part, Sut = 530 MPa, f = 0.9, and has a fully
The material properties of a machine part are Sut = 85 kpsi, f = 0.86, and a fully corrected endurance limit of Se = 45 kpsi. The part is to be cycled at σa = 35 kpsi and σm = 30 kpsi for 12 (103) cycles. Using the Gerber criterion, estimate the new endurance limit after cycling.(a) Use Miner’s
Repeat Prob. 6–62 using the Goodman criterion.Repeat Prob. 6–62, The material properties of a machine part are Sut = 85 kpsi, f = 0.86, and a fully corrected endurance limit of Se = 45 kpsi. The part is to be cycled at σa = 35 kpsi and σm = 30 kpsi for 12 (103) cycles. Using the Gerber
Solve Prob. 6–1 if the ultimate strength of production pieces is found to be Sut = 1030LN(1, 0.0508) MPa.In Prob. 6–1, A 10-mm drill rod was heat-treated and ground. The measured hardness was found to be 300 Brinell. Estimate the endurance strength in MPa if the rod is used in rotating bending.
The situation is similar to that of Prob. 6–14 wherein the imposed completely reversed axial load Fa = 3.8LN (1, 0.20) kip is to be carried by the link with a thickness to be specified by you, the designer. Use the 1020 cold-drawn steel of Prob. 6–14 with Sut = 68LN (1, 0.28) and Syt = 57LN (1,
A solid round steel bar is machined to a diameter of 32 mm. A groove 3 mm deep with a radius of 3 mm is cut into the bar. The material has a mean tensile strength of 780 MPa. A completely reversed bending moment M = 160 N ∙ m is applied. Estimate the reliability. The size factor should be based
Repeat Prob. 6–66, with a completely reversed torsional moment of T = 160 N ∙ m applied.Repeat Prob. 6–66, A solid round steel bar is machined to a diameter of 32 mm. A groove 3 mm deep with a radius of 3 mm is cut into the bar. The material has a mean tensile strength of 780 MPa. A
A 1 ½ -in-diameter hot-rolled steel bar has a 3/16 -in diameter hole drilled transversely through it. The bar is nonrotating and is subject to a completely reversed bending moment of M = 1500 lbf ∙ in the same plane as the axis of the transverse hole. The material has a mean tensile strength of
Repeat Prob. 6–68, with the bar subject to a completely reversed torsional moment of 2000 lbf ∙ in.Repeat Prob. 6–68, A 1 ½ -in-diameter hot-rolled steel bar has a 3/16 -in diameter hole drilled transversely through it. The bar is nonrotating and is subject to a completely reversed bending
The plan view of a link is the same as in Prob. 6–30; however, the forces F are completely reversed, the reliability goal is 0.998, and the material properties are Sut = 64LN (1, 0.045) kpsi and Sy = 54LN (1, 0.077) kpsi. Treat Fa as deterministic, and specify the thickness h.In Prob.
A shaft is loaded in bending and torsion such that Ma = 70 N · m, Ta = 45 N · m, Mm = 55 N · m, and Tm = 35 N · m. For the shaft, Su = 700 MPa and Sy = 560 MPa, and a fully corrected endurance limit of Se = 210 MPa is assumed. Let Kf = 2.2 and Kfs = 1.8. With a design factor of 2.0 determine
The section of shaft shown in the figure is to be designed to approximate relative sizes of d = 0.75D and r = D/20 with diameter d conforming to that of standard metric rolling-bearing bore sizes. The shaft is to be made of SAE 2340 steel, heat-treated to obtain minimum strengths in the shoulder
The rotating solid steel shaft is simply supported by bearings at points B and C and is driven by a gear (not shown) which meshes with the spur gear at D, which has a 150-mm pitch diameter. The force F from the drive gear acts at a pressure angle of 20°. The shaft transmits a torque to point A
A geared industrial roll shown in the figure is driven at 300 rev/min by a force F acting on a 3-in-diameter pitch circle as shown. The roll exerts a normal force of 30 lbf/in of roll length on the material being pulled through. The material passes under the roll. The coefficient of friction is
Design a shaft for the situation of the industrial roll of Prob. 7–4 with a design factor of 2 and a reliability goal of 0.999 against fatigue failure. Plan for a ball bearing on the left and a cylindrical roller on the right. For deformation use a factor of safety of 2.Prob. 7–4, A
For the problem specified in the table, build upon the results of the original problem to obtain a preliminary design of the shaft by performing the following tasks.(a) Sketch a general shaft layout, including means to locate the components and to transmit the torque. Estimates for the component
For the problem specified in the table, build upon the results of the original problem to obtain a preliminary design of the shaft by performing the following tasks.(a) Sketch a general shaft layout, including means to locate the components and to transmit the torque. Estimates for the component
For the problem specified in the table, build upon the results of the original problem to obtain a preliminary design of the shaft by performing the following tasks.(a) Sketch a general shaft layout, including means to locate the components and to transmit the torque. Estimates for the component
For the problem specified in the table, build upon the results of the original problem to obtain a preliminary design of the shaft by performing the following tasks.(a) Sketch a general shaft layout, including means to locate the components and to transmit the torque. Estimates for the component
For the problem specified in the table, build upon the results of the original problem to obtain a preliminary design of the shaft by performing the following tasks.(a) Sketch a general shaft layout, including means to locate the components and to transmit the torque. Estimates for the component
For the problem specified in the table, build upon the results of the original problem to obtain a preliminary design of the shaft by performing the following tasks.(a) Sketch a general shaft layout, including means to locate the components and to transmit the torque. Estimates for the component
For the problem specified in the table, build upon the results of the original problem to obtain a preliminary design of the shaft by performing the following tasks.(a) Sketch a general shaft layout, including means to locate the components and to transmit the torque. Estimates for the component
For the problem specified in the table, build upon the results of the original problem to obtain a preliminary design of the shaft by performing the following tasks.(a) Sketch a general shaft layout, including means to locate the components and to transmit the torque. Estimates for the component
For the problem specified in the table, build upon the results of the original problem to obtain a preliminary design of the shaft by performing the following tasks.(a) Sketch a general shaft layout, including means to locate the components and to transmit the torque. Estimates for the component
For the problem specified in the table, build upon the results of the original problem to obtain a preliminary design of the shaft by performing the following tasks.(a) Sketch a general shaft layout, including means to locate the components and to transmit the torque. Estimates for the component
The shaft shown in the figure is proposed for the application defined in Prob. 3€“72, p. 138. The material is AISI 1018 cold-drawn steel. The gears seat against the shoulders, and have hubs with setscrews to lock them in place. The effective centers of the gears for force transmission are
Continue Prob. 7€“19 by checking that the deflections satisfy the suggested minimums for bearings and gears in Table 7€“2. If any of the deflections exceed the recommended limits, make appropriate changes to bring them all within the limits.Prob. 7€“19, The shaft shown
The shaft shown in the figure is proposed for the application defined in Prob. 3€“73, p. 138. The material is AISI 1018 cold-drawn steel. The gears seat against the shoulders, and have hubs with setscrews to lock them in place. The effective centers of the gears for force transmission are
Continue Prob. 7€“21 by checking that the deflections satisfy the suggested minimums for bearings and gears in Table 7€“2. If any of the deflections exceed the recommended limits, make appropriate changes to bring them all within the limits.Prob. 7€“21, The shaft shown
The shaft shown in the figure is driven by a gear at the right keyway, drives a fan at the left keyway, and is supported by two deep-groove ball bearings. The shaft is made from AISI 1020 cold-drawn steel. At steady-state speed, the gear transmits a radial load of 230 lbf and a tangential load of
A shaft is to be designed to support the spur pinion and helical gear shown in the figure on two bearings spaced 700 mm center-to-center. Bearing A is a cylindrical roller and is to take only radial load; bearing B is to take the thrust load of 900 N produced by the helical gear and its share of
A heat-treated steel shaft is to be designed to support the spur gear and the overhanging worm shown in the figure. A bearing at A takes pure radial load. The bearing at B takes the worm-thrust load for either direction of rotation. The dimensions and the loading are shown in the figure; note that
A bevel-gear shaft mounted on two 40-mm 02-series ball bearings is driven at 1720 rev/min by a motor connected through a flexible coupling. The figure shows the shaft, the gear, and the bearings. The shaft has been giving trouble—in fact, two of them have already failed—and the down
A 25-mm-diameter uniform steel shaft is 600 mm long between bearings.(a) Find the lowest critical speed of the shaft.(b) If the goal is to double the critical speed, find the new diameter.(c) A half-size model of the original shaft has what critical speed?
Demonstrate how rapidly Rayleigh’s method converges for the uniform-diameter solid shaft of Prob. 7–28, by partitioning the shaft into first one, then two, and finally three elements.Prob. 7–28, A 25-mm-diameter uniform steel shaft is 600 mm long between bearings.(a) Find the lowest critical
The shaft shown in the figure carries a 18-lbf gear on the left and a 32-lbf gear on the right. Estimate the first critical speed due to the loads, the shaft€™s critical speed without the loads, and the critical speed of thecombination.
The shaft shown in Prob. 7€“19 is proposed for the application defined in Prob. 3€“72, p. 138. Specify a square key for gear B, using a factor of safety of 1.1.In Prob. 7€“19, The shaft shown in the figure is proposed for the application defined in Prob.
The shaft shown in Prob. 7€“21 is proposed for the application defined in Prob. 3€“73, p. 138. Specify a square key for gear B, using a factor of safety of 1.1.Shown in Prob. 7€“21, The shaft shown in the figure is proposed for the application defined in Prob.
An interference fit of a cast-iron hub of a gear on a steel shaft is required. Make the dimensional decisions for a 1.75-in basic size medium drive fit.
A pin is required for forming a linkage pivot. Find the dimensions required for a 45-mm basic size pin and clevis with a sliding fit.
A journal bearing and bushing need to be described. The nominal size is 1.25 in. What dimensions are needed for a 1.25-in basic size with a close running fit if this is a lightly loaded journal and bushing assembly?
A ball bearing has been selected with the bore size specified in the catalog as 35.000 mm to 35.020 mm. Specify appropriate minimum and maximum shaft diameters to provide a locational interference fit.
A shaft diameter is carefully measured to be 1.5020 in. A bearing is selected with a catalog specification of the bore diameter range from 1.500 in to 1.501 in. Determine if this is an acceptable selection if a locational interference fit is desired.
A gear and shaft with nominal diameter of 35 mm are to be assembled with a medium drive fit, as specified in Table 7–9. The gear has a hub, with an outside diameter of 60 mm, and an overall length of 50 mm. The shaft is made from AISI 1020 CD steel, and the gear is made from steel that has been
A screw clamp similar to the one shown in the figure has a handle with diameter 3/8 in made of cold-drawn AISI 1006 steel. The overall length is 4.25 in. The screw is 3/4 in-10 UNC and is 8 in long, overall. Distance A is 3 in. The clamp will accommodate parts up to 6 in high.(a) What screw torque
The C clamp shown in the figure for Prob. 8–7 uses a 3/4 in-6 Acme thread. The frictional coefficients are 0.15 for the threads and for the collar. The collar, which in this case is the anvil striker’s swivel joint, has a friction diameter of 1 in. Calculations are to be based on a maximum
Find the power required to drive a 1.5-in power screw having double square threads with a pitch of 1/4 in. The nut is to move at a velocity of 2 in/s and move a load of F = 2.2 kips. The frictional coefficients are 0.10 for the threads and 0.15 for the collar. The frictional diameter of the collar
A single square-thread power screw has an input power of 3 kW at a speed of 1 rev/s. The screw has a diameter of 40 mm and a pitch of 8 mm. The frictional coefficients are 0.14 for the threads and 0.09 for the collar, with a collar friction radius of 50 mm. Find the axial resisting load F and the
An M14 × 2 hex-head bolt with a nut is used to clamp together two 15-mm steel plates.(a) Determine a suitable length for the bolt, rounded up to the nearest 5 mm.(b) Determine the bolt stiffness.(c) Determine the stiffness of the members.
Repeat Prob. 8–11 with the addition of one 14R metric plain washer under the nut.Repeat Prob. 8–11, An M14 × 2 hex-head bolt with a nut is used to clamp together two 15-mm steel plates.(a) Determine a suitable length for the bolt, rounded up to the nearest 5 mm.(b) Determine the bolt
Repeat Prob. 8–11 with one of the plates having a threaded hole to eliminate the nut.Repeat Prob. 8–11, An M14 × 2 hex-head bolt with a nut is used to clamp together two 15-mm steel plates.(a) Determine a suitable length for the bolt, rounded up to the nearest 5 mm.(b) Determine the bolt
A 2-in steel plate and a 1-in cast-iron plate are compressed with one bolt and nut. The bolt is ½ in-13 UNC.(a) Determine a suitable length for the bolt, rounded up to the nearest ¼ in.(b) Determine the bolt stiffness.(c) Determine the stiffness of the members.
Repeat Prob. 8–14 with the addition of one 1/2 N American Standard plain washer under the head of the bolt, and another identical washer under the nut.Repeat Prob. 8–14, A 2-in steel plate and a 1-in cast-iron plate are compressed with one bolt and nut. The bolt is 1/2 in-13 UNC.(a) Determine a
Repeat Prob. 8–14 with the cast-iron plate having a threaded hole to eliminate the nut.Repeat Prob. 8–14, A 2-in steel plate and a 1-in cast-iron plate are compressed with one bolt and nut. The bolt is 1/2 in-13 UNC.(a) Determine a suitable length for the bolt, rounded up to the nearest ¼
Two identical aluminum plates are each 2 in thick, and are compressed with one bolt and nut. Washers are used under the head of the bolt and under the nut.Washer properties: steel; ID = 0.531 in; OD = 1.062 in; thickness = 0.095 inNut properties: steel; height = 7/16 inBolt properties: 1/2 in-13
Repeat Prob. 8–17 with no washer under the head of the bolt, and two washers stacked under the nut.Repeat Prob. 8–17, Two identical aluminum plates are each 2 in thick, and are compressed with one bolt and nut. Washers are used under the head of the bolt and under the nut.Washer properties:
A 30-mm thick AISI 1020 steel plate is sandwiched between two 10-mm thick 2024-T3 aluminum plates and compressed with a bolt and nut with no washers. The bolt is M10 × 1.5, property class 5.8.(a) Determine a suitable length for the bolt, rounded up to the nearest 5 mm.(b) Determine the bolt
Repeat Prob. 8–19 with the bottom aluminum plate replaced by one that is 20 mm thick.Repeat Prob. 8–19, A 30-mm thick AISI 1020 steel plate is sandwiched between two 10-mm thick 2024-T3 aluminum plates and compressed with a bolt and nut with no washers. The bolt is M10 × 1.5, property class
Repeat Prob. 8–19 with the bottom aluminum plate having a threaded hole to eliminate the nut.Repeat Prob. 8–19, A 30-mm thick AISI 1020 steel plate is sandwiched between two 10-mm thick 2024-T3 aluminum plates and compressed with a bolt and nut with no washers. The bolt is M10 × 1.5, property
Two 20-mm steel plates are to be clamped together with a bolt and nut. Specify a bolt to provide a joint constant C between 0.2 and 0.3.
A 2-in steel plate and a 1-in cast-iron plate are to be compressed with one bolt and nut. Specify a bolt to provide a joint constant C between 0.2 and 0.3.
An aluminum bracket with a ½-in thick flange is to be clamped to a steel column with a 3/4 –in wall thickness. A cap screw passes through a hole in the bracket flange, and threads into a tapped hole through the column wall. Specify a cap screw to provide a joint constant C between 0.2 and 0.3.
An M14 × 2 hex-head bolt with a nut is used to clamp together two 20-mm steel plates. Compare the results of finding the overall member stiffness by use of Eqs. (8–20), (8–22), and (8–23).
A 3/4 in-16 UNF series SAE grade 5 bolt has a ¾-in ID steel tube 10 in long, clamped between washer faces of bolt and nut by turning the nut snug and adding one-third of a turn. The tube OD is the washer-face diameter dw = 1.5d = 1.5(0.75) = 1.125 in = OD.(a) Determine the bolt stiffness, the
For a bolted assembly with six bolts, the stiffness of each bolt is kb = 3 Mlbf/in and the stiffness of the members is km = 12 Mlbf/in per bolt. An external load of 80 kips is applied to the entire joint. Assume the load is equally distributed to all the bolts. It has been determined to use 1/2
For the bolted assembly of Prob. 8–29, it is desired to find the range of torque that a mechanic could apply to initially preload the bolts without expecting failure once the joint is loaded. Assume a torque coefficient of K = 0.2.(a) Determine the maximum bolt preload that can be applied without
For a bolted assembly with eight bolts, the stiffness of each bolt is kb = 1.0 MN/mm and the stiffness of the members is km = 2.6 MN/mm per bolt. The joint is subject to occasional disassembly for maintenance and should be preloaded accordingly. Assume the external load is equally distributed to
For a bolted assembly, the stiffness of each bolt is kb = 4 Mlbf/in and the stiffness of the members is km = 12 Mlbf/in per bolt. The joint is subject to occasional disassembly for maintenance and should be preloaded accordingly. A fluctuating external load is applied to the entire joint with Pmax
The figure illustrates the connection of a steel cylinder head to a grade 30 cast-iron pressure vessel using N bolts. A confined gasket seal has an effective sealing diameter D. The cylinder stores gas at a maximum pressure pg. For the specifications given in the table for the specific problem
The figure illustrates the connection of a steel cylinder head to a grade 30 cast-iron pressure vessel using N bolts. A confined gasket seal has an effective sealing diameter D. The cylinder stores gas at a maximum pressure pg. For the specifications given in the table for the specific problem
The figure illustrates the connection of a steel cylinder head to a grade 30 cast-iron pressure vessel using N bolts. A confined gasket seal has an effective sealing diameter D. The cylinder stores gas at a maximum pressure pg. For the specifications given in the table for the specific problem
The figure illustrates the connection of a steel cylinder head to a grade 30 cast-iron pressure vessel using N bolts. A confined gasket seal has an effective sealing diameter D. The cylinder stores gas at a maximum pressure pg. For the specifications given in the table for the specific problem
Repeat the requirements for the problem specified in the table if the bolts and nuts are replaced with cap screws that are threaded into tapped holes in the cast-iron cylinder.Problem 8-33, the figure illustrates the connection of a steel cylinder head to a grade 30 cast-iron pressure vessel using
Repeat the requirements for the problem specified in the table if the bolts and nuts are replaced with cap screws that are threaded into tapped holes in the cast-iron cylinder.Problem 8-38, the figure illustrates the connection of a steel cylinder head to a grade 30 cast-iron pressure vessel using
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