Notes on the theory of annealing textures: Comments on a paper by P. A. Beck with the same title

Burgers, W. G.; Tiedema, T. J.

doi:10.1016/0001-6160(53)90065-0

Cited by 58 publications

(5 citation statements)

References 10 publications

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“…It has been emphasized by Doherty, [1] Hutchinson, [2] and Humphreys and Hatherly [3] that the classical nucleation theory adopted by Burke and Turnbull [4] from the Johnson-Mehl hypothesis [5] is not valid in the case of recrystallization. One possible explanation for the development of recrystallization textures is provided by the oriented nucleation theory; [6,7] the latter states that nucleation occurs more easily in some orientations than in others and is, therefore, responsible for the final texture. At the growth stage of recrystallization, both the stability and mobility conditions must be fulfilled if the nucleus is to be transformed into a new grain.…”

Section: Introductionmentioning

confidence: 99%

Torsion textures produced by dynamic recrystallization in α-iron and two interstitial-free steels

Baczynski

Jonas

1998

Metall Mater Trans A

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Two interstitial-free (IF) steels and a high-purity ␣-iron were deformed in torsion over the temperature range of 600 ЊC to 840 ЊC, and the textures produced were measured using conventional Xray techniques. The conditions were chosen so that dynamic recrystallization (DRX) would take place in the ferrite and static recrystallization would be avoided during cooling after deformation. The DRX textures differ from those observed at room temperature and are dominated by the D1 (11 ) [111], D2 ( 2)[111], and E2 (0 1)[111] components. The D2 becomes increasingly important 2 1 1 1 as the strain is increased, which leads to weakening of the D1 and disappearance of the E2 at large strains. Texture simulations were carried out using a DRX model based on sequential deformation, nucleation, and growth steps. The types of oriented nucleation and selective growth required to reproduce the experimentally observed textures are discussed. The simulations indicate that the lowenergy nucleation mechanism plays a dominant role in the formation of bcc DRX textures. The results are also interpreted in terms of the continuous (in situ ) and discontinuous mechanisms of dynamic recrystallization.

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Section: Introductionmentioning

confidence: 99%

Torsion textures produced by dynamic recrystallization in α-iron and two interstitial-free steels

Baczynski

Jonas

1998

Metall Mater Trans A

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“…in this study at 650 • C. It is apparent that by this means the nucleation and the subsequent growth of annealing twins or other disturbing orientations can be widely suppressed in the highly alloyed Ni-W tapes. This possibility is discussed by Beck [16] and by Burgers and Tiedema [17] for the initial processes of recrystallization in cold rolled face centred cubic metals. They pointed out that those grains of the deformed .…”

Section: Aspects Of Cube Texture Formation In Ni-9 At% Wmentioning

confidence: 97%

Textured Ni–9.0 at.% W substrate tapes for YBCO-coated conductors

Eickemeyer

Hühne

Güth

et al. 2010

Supercond. Sci. Technol.

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Cube textured tapes were prepared by cold rolling and annealing (RABiTS method) from nickel alloyed with 9.0 at.% tungsten in order to get a flexible nonmagnetic substrate for superconductors of the YBa 2 Cu 3 O 7−δ (YBCO) type. A fraction of up to 96% of cube orientation was measured for the Ni-9.0 at.% W alloy tape. First coating experiments by pulsed laser deposition revealed an epitaxial growth of the buffer and the YBCO layers on the developed substrate. Critical current densities J c of up to 1.10 MA cm −2 were measured at 77 K in self-field.

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“…10) Nucleation occurs from piled-up dislocations at grain boundaries and the recrystallized grains have the same orientations as deformed grains. The number of microscopic slips is equal to the number of dislocations, as shown by…”

Section: Recrystallization Modelmentioning

confidence: 99%

Application of Recrystallization Texture Evolution Model to Type 430 Stainless-Steel Strip Production

et al. 2012

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The ridging phenomenon of type 430 stainless-steel originates from the texture due to crystal plasticity anisotropy. Thus, to predict the antiridging property, we must continuously analyze the hot-rolling, hot-rolling and annealing, cold-rolling, cold-rolling and annealing textures. However, it has been previously difficult to analyze the recrystallization texture. We thus developed a model to predict the recrystallization texture coupled with the Taylor rolling model. Furthermore, the ridging index was calculated in order to estimate the plasticity in type 430 stainless-steels. The plasticity prediction method was applied to type 430 stainless-steel strips rolled at a low temperature with a high reduction rate in an actual tandem hot strip mill.

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Notes on the theory of annealing textures: Comments on a paper by P. A. Beck with the same title

Cited by 58 publications

References 10 publications

Torsion textures produced by dynamic recrystallization in α-iron and two interstitial-free steels

Torsion textures produced by dynamic recrystallization in α-iron and two interstitial-free steels

Textured Ni–9.0 at.% W substrate tapes for YBCO-coated conductors

Application of Recrystallization Texture Evolution Model to Type 430 Stainless-Steel Strip Production

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