It is important to be able to calculate the ratchet limit of a component when performing integrity assessments of plant components. This paper details the addition of a lower bound ratchet limit calculation to the Linear Matching Method. The extension of Melan's theorem into the alternating plasticity region is explained, followed by its implementation into the Linear Matching Method calculation procedure. Finally, the convergence properties of this method are analysed by the analysis of a plate with a central hole subject to cyclic thermal and mechanical loadin
Ensuring sufficient safety against ratcheting is a fundamental requirement in pressure vessel design...
Although the shakedown theorems for perfect plasticity have been known since Koiter's 1960 review pa...
The Linear Matching Method (LMM), a direct numerical method for determining shakedown and ratchet li...
The calculation of the ratchet limit is often vital for the assessment of the design and integrity o...
AbstractThe calculation of the ratchet limit is often vital for the assessment of the design and int...
In an accompanying paper in this issue a lower bound method based on Melan's theorem was derived and...
In this paper a state-of-the-art numerical method is discussed for the evaluation of the shakedown a...
This paper describes a new Linear Matching Method (LMM) technique for the direct evaluation of ratch...
This paper introduces a new approach based upon the Linear Matching Method in order to obtain the ra...
A novel approach is presented based upon the Linear Matching Method framework in order to directly c...
An extension of the upper bound shakedown theorem to load histories in excess of shakedown has been ...
This paper provides a direct comparison between the Linear Matching Method (LMM) and the procedures ...
Ensuring sufficient safety against ratcheting is a fundamental requirement in pressure vessel design...
This paper provides a direct comparison between the Linear Matching Method (LMM) and the numerical p...
Ensuring sufficient safety against ratchet is a fundamental requirement in pressure vessel design. D...
Ensuring sufficient safety against ratcheting is a fundamental requirement in pressure vessel design...
Although the shakedown theorems for perfect plasticity have been known since Koiter's 1960 review pa...
The Linear Matching Method (LMM), a direct numerical method for determining shakedown and ratchet li...
The calculation of the ratchet limit is often vital for the assessment of the design and integrity o...
AbstractThe calculation of the ratchet limit is often vital for the assessment of the design and int...
In an accompanying paper in this issue a lower bound method based on Melan's theorem was derived and...
In this paper a state-of-the-art numerical method is discussed for the evaluation of the shakedown a...
This paper describes a new Linear Matching Method (LMM) technique for the direct evaluation of ratch...
This paper introduces a new approach based upon the Linear Matching Method in order to obtain the ra...
A novel approach is presented based upon the Linear Matching Method framework in order to directly c...
An extension of the upper bound shakedown theorem to load histories in excess of shakedown has been ...
This paper provides a direct comparison between the Linear Matching Method (LMM) and the procedures ...
Ensuring sufficient safety against ratcheting is a fundamental requirement in pressure vessel design...
This paper provides a direct comparison between the Linear Matching Method (LMM) and the numerical p...
Ensuring sufficient safety against ratchet is a fundamental requirement in pressure vessel design. D...
Ensuring sufficient safety against ratcheting is a fundamental requirement in pressure vessel design...
Although the shakedown theorems for perfect plasticity have been known since Koiter's 1960 review pa...
The Linear Matching Method (LMM), a direct numerical method for determining shakedown and ratchet li...