20 - 21 November 2024, online
Language: English
This online training course covers the new ”FKM-Guideline Nonlinear” for static and cyclic loading. Besides detailed assessment procedures, background on the individual topics will be given for better understanding about the procedures. The course is aimed at newcomers in the field, as well as experts interested in the concept of the FKM guidelines.
Strength for monotonic loading – static strength
Cyclic strength
Day 1
9:00-10:30
11:00-12:30
13:30-15:00
15:30-17.30
Day 2
9:00-10:30
11:00-12:30
13:30-15:00
15:30-17.30
MESMco4 | Discuss the terms True Stress and Natural Strain |
MASap1 | Employ material constitutive data appropriately in analysis and simulation. |
MASco15 | If relevant to your industry sector, explain how use of a modulus and allowable stress can be used in a small displacement linear elastic analysis of a plastic component. |
MASco9 | Explain, in metallurgical terms, how brittle and ductile cracks form in steels and how their appearances differ. |
MASco5 | Discuss the relationship between transition temperature and toughness and ductility. |
MASkn4 | List any material temperature limits (high and low) specified for the materials commonly used in your industry sector. |
FATkn4 | Sketch a sinusoidal stress variation and show the maximum stress, minimum stress, mean stress, alternating stress (or stress amplitude), stress range and stress ratio. |
FATkn3 | List potential sites for fatigue in your company products. |
FATkn6 | List ways of inducing beneficial compressive stresses in your company products. |
FATco1 | Discuss the initiation, propagation and fast fracture stages of Fatigue in metallic materials. |
FATco2 | Describe how the data used to construct an S-N curve are obtained. |
FATco3 | Discuss the term high cycle fatigue, highlighting a common source in your company products. |
FATco4 | Discuss the statistical nature of fatigue and explain how this is handled in relevant design standards and codes of practice. |
FATco5 | Discuss the salient features of an S-N diagram for steels and explain the terms endurance limit, infinite life and low cycle fatigue. |
FATco7 | Discuss the observed relationship between endurance limit and static tensile strength for steels and explain why this relationship does not hold for welded steels. |
FATco10 | Contrast the Stress-Life and Strain Life / Manson-Coffin approaches to fatigue assessment. |
FATco11 | Explain the use of Endurance Limit Modifying Factors in Stress-Life based fatigue assessment. |
FATco12 | Discuss how temperature, plate thickness and modulus effects are typically handled in relevant design standards and codes of practice and explain why this is necessary. |
FATco14 | Discuss the term Fatigue Strength Reduction Factor in relation to stress concentrations and explain how this has traditionally been handled in relevant design standards and codes of practice. |
FATco15 | Discuss the concept of cumulative damage and explain how this is commonly handled. |
FATco16 | Explain why a multiaxial stress field can complicate an analysis and discuss approaches to handling this. |
FATco17 | Discuss the significance of the choice of equivalent stress used in the fatigue assessment of welded joints |
FATco29 | Explain how a Cyclic Stress-Strain Curve is constructed and used. |
FATco30 | Explain Neuber's Rule and its limitations and why corrections to the elastic strain range from an elastic analysis may be necessary. |
FATco36 | Discuss any particular characteristic fatigue properties and behaviour for any materials being considered in analyses and assessment. |
FATco37 | Reflect on how variable amplitude load sequencing can affect the prediction of damage accumulation and fatigue life. |
FATap2 | Carry out elastic fatigue assessment using design standards and code guidelines for components and structures including any special procedures for ancillary components such as bolts, |
FATap3 | Modify the results of an elastic analysis for the effects of plasticity, where necessary. |
FATap4 | Conduct plastic analyses as necessary, to evaluate equivalent plastic strain ranges in components and assess using design standards and code guidelines. |
FATap5 | Use Reservoir Counting / Rainflow Method or similar to specify the necessary stress ranges, number of cycles and loading history for any component to be analysed. |
FATap6 | Employ a finite element analysis system for the fatigue analysis of a component or structure. |
PLASev3 | Assess the significance of neglecting any feature or detail in any nonlinear material idealisation. |
PLASsy1 | Specify the use of elastic perfectly plastic and bi-linear or multi-linear hardening constitutive data as appropriate. |
PLASap2 | Use FEA to determine Limit Loads for a range of components. |
PLASap7 | Using standard material data, derive a true stress vs true strain curve to be used for nonlinear analysis. |
PLASco21 | Explain the rationale behind the 5% strain limit in some codes of practice. |
PLASco26 | Discuss approaches employed to improve the finite element prediction of limit load. |
PLASco33 | Explain Neuber's Rule. |
Trainer
Prof. Dr.-Ing. Klemens Rother
University of Applied Sciences Munich, Germany
Engineering Degree in Mechanical Engineering / Doctoral thesis in analytical fatigue assessment of multiaxial, non-proportional stress states
Prof. Rother has over 20 years of industrial experience in responsible positions: design and qualification in transportation systems, pressure vessel design, consulting in computational engineering, software development and development and implementation of knowledge based systems.
More information:
Prof. Dr.-Ing. Klemens Rother (mwn.de)
https://orcid.org/0000-0002-9643-4967
Duration
Day 1: 9:00 am - 5:30 pm
Day 2: 9:00 am - 5:30 pm
Login phase from 8:30 am.
Time zone: CET (Central European Time), UTC+1 (Berlin)
Language
English
Course Fee
Non NAFEMS members: 1.550 Euro / person*
NAFEMS member: 1.200 Euro / person*
Included in the fees are digital course notes in English language and a certificate.
* plus VAT if applicable.
NAFEMS membership fees (company)
A standard NAFEMS site membership costs 1,365 euros per year, an academic site and entry membership costs 855 euros per year.
Cancellation Policy
Up to 6 weeks before course starts: free of charge;
up to one week before: 75 %;
later and no show: 100 %.
Course cancellation
If not enough participants we keep the right to cancel the course one week before. The course can be canceled also in case of disease of the speakers or force majeure. In these cases the course fees will be returned.
Organisation / Contact
NAFEMS
e-mail: roger.oswald@nafems.org
The course is agreed and under control of NAFEMS Education and Training Working Group (ETWG).
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