A critical point in a part made of a ductile material is subject to the following state of plane stress:15ksi,30 ksi,15 ksi,Ox,min = -35 ksi,Oy,min = 30 ksi,Txy,min = -15 ksi.Ох,maxбу,maxТxy,max%3DThere are no stress concentrations. The load line is propositional. The material has a yield strengthof Sy = 130 ksi, an ultimate strength of Su = 200 ksi, and a fully corrected endurance limit of Sn :75 ksi. Calculate the:(a) Static factor of safety using the MSSTF,(b) Static factor of safety using the DETF,(c) Fatigue factor of safety using the Soderberg criterion,(d) Fatigue factor of safety using the Goodman criterion,(e) Fatigue factor of safety using the ASME elliptic criterion.

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Ical point part made 81 a m Ox,max = 15ksi, Oy,max = 30 ksi, Txy,max = 15 ksi, Ox,min = -35 ksi, Oy,min = 30 ksi, Txy,min = -15 ksi. There are no stress concentrations. The load of Sy = 130 ksi, an ultimate strength of Su =? 75 ksi. Calculate the: (a) Static factor of safety using the MSS' (b) Static factor of safety using the DETI (c) Fatique factor of safety using the Sod

Ical point part made 81 a m Ox,max = 15ksi, Oy,max = 30 ksi, Txy,max = 15 ksi, Ox,min = -35 ksi, Oy,min = 30 ksi, Txy,min = -15 ksi. There are no stress concentrations. The load of Sy = 130 ksi, an ultimate strength of Su =? 75 ksi. Calculate the: (a) Static factor of safety using the MSS' (b) Static factor of safety using the DETI (c) Fatique factor of safety using the Sod

Materials Science And Engineering Properties

1st Edition

ISBN:9781111988609

Author:Charles Gilmore

Publisher:Charles Gilmore

Chapter6: Introduction To Mechanical Properties

Section: Chapter Questions

Problem 6.2P

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