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peritectic reactions
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Book Chapter
Book: Alloy Phase Diagrams
Series: ASM Handbook
Volume: 3
Publisher: ASM International
Published: 27 April 2016
DOI: 10.31399/asm.hb.v03.a0006226
EISBN: 978-1-62708-163-4
... Abstract Similar to the eutectic group of invariant transformations is a group of peritectic reactions, in which a liquid and solid phase decomposes into a solid phase on cooling through the peritectic isotherm. This article describes the equilibrium freezing and nonequilibrium freezing...
Abstract
Similar to the eutectic group of invariant transformations is a group of peritectic reactions, in which a liquid and solid phase decomposes into a solid phase on cooling through the peritectic isotherm. This article describes the equilibrium freezing and nonequilibrium freezing of peritectic alloys. It informs that peritectic reactions or transformations are very common in the solidification of metals. The article discusses the formation of peritectic structures that can occur by three mechanisms: peritectic reaction, peritectic transformation, and direct precipitation of beta from the melt. It provides a discussion on the peritectic structures in iron-base alloys and concludes with information on multicomponent systems.
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Published: 27 April 2016
Fig. 2 Typical peritectic phase diagrams. (a) Peritectic reaction α + liquid → β and peritectoid reaction α + β → γ. (b) Peritectic formation of intermetallic phases from a high-melting intermetallic. (c) Peritectic cascade between high- and low-melting components. Adapted from Ref 1
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Published: 01 December 2008
Fig. 1 Typical peritectic phase diagrams. (a) Peritectic reaction α + liquid → β and peritectoid reaction α + β → γ. (b) Peritectic formation of intermetallic phases from a high-melting intermetallic. (c) Peritectic cascade between high- and low-melting components. Source: Ref 1
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Published: 01 December 2004
Fig. 19 Typical peritectic phase diagrams. (a) Peritectic reaction α + liquid → β and peritectoid reaction α + β → γ. (b) Peritectic formation of intermetallic phases from a high-melting intermetallic. (c) Peritectic cascade between high- and low-melting components. Source: Ref 2
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Book Chapter
Series: ASM Handbook
Volume: 9
Publisher: ASM International
Published: 01 December 2004
DOI: 10.31399/asm.hb.v09.a0003734
EISBN: 978-1-62708-177-1
... of a pearlite nodule and the effect of various substitutional alloy elements on the eutectoid transformation temperature and effective carbon content, respectively. Peritectic and peritectoid phase equilibria are very common in several binary systems. The article reviews structures from peritectoid reactions...
Abstract
Solid-state transformations from invariant reactions are of three types: eutectoid, peritectoid, and monotectoid transformations. This article focuses on structures from eutectoid transformations with an emphasis on the classic iron-carbon system of steel. It illustrates the morphology of a pearlite nodule and the effect of various substitutional alloy elements on the eutectoid transformation temperature and effective carbon content, respectively. Peritectic and peritectoid phase equilibria are very common in several binary systems. The article reviews structures from peritectoid reactions and details the formation of peritectic structures that can occur by at least three mechanisms: peritectic reaction, peritectic transformation, and direct precipitation of beta from the melt.
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in Effects of Composition, Processing, and Structure on Properties of Nonferrous Alloys
> Materials Selection and Design
Published: 01 January 1997
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Published: 27 April 2016
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Published: 27 April 2016
Fig. 6 Mechanisms of peritectic reaction and transformation. (a) Lateral growth of a β layer along the α-liquid interface during peritectic reaction by liquid diffusion. (b) Thickening of a β layer by solid-state diffusion during peritectic transformation. The solid arrows indicate growth
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Published: 27 April 2016
Fig. 9 Start of the peritectic reaction in a directionally-solidified Cu-20Sn alloy. Primary α dendrites (white) are covered by peritectically formed β layer (gray) shortly after the temperature reaches T p . Matrix (dark) is a mixture of tin-rich phases. Original magnification: 40×. Source
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Published: 27 April 2016
Fig. 18 Nickel distribution after peritectic reaction in a steel containing 4 wt% Ni. The temperature gradient was 60 K/cm. Calculations were made at different solidification rates. The dotted line ws the nickel distribution at the start of the peritectic reaction. δ, primary ferrite; γ
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Published: 27 April 2016
Fig. 20 Three stages of a peritectic reaction in a unidirectionally solidified high-speed steel. (a) First-stage structure. Dark gray is austenite; white is ferrite. The mottled structure is quenched liquid. (b) Subsequent peritectic transformation of (a). (c) Further peritectic transformation
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Published: 27 April 2016
Fig. 24 Three-phase equilibria in a ternary system with a peritectic reaction. Adapted from Ref 3
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Published: 01 December 2008
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Published: 01 December 2008
Fig. 3 Mechanisms of peritectic reaction and transformation. (a) Lateral growth of a β-layer along the α/liquid interface during peritectic reaction by liquid diffusion. (b) Thickening of a β-layer by solid-state diffusion during peritectic transformation. The solid arrows indicate growth
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Image
Published: 01 December 2008
Fig. 5 Start of the peritectic reaction in a directionally solidified Cu-20Sn alloy. Primary α-dendrites (white) are covered by peritectically formed β-layer (gray) shortly after the temperature reaches T p . Matrix (dark) is a mixture of tin-rich phases. Mechanically polished, etched in HNO
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Published: 01 December 2008
Fig. 6 Start of the peritectic reaction in a directionally solidified Cu-70Sn alloy. The primary ε-phase (dark) is covered by the peritectically formed η-layer (white), which thickens with increasing undercooling below T p . The matrix is the Sn-η eutectic. Mechanically polished, etched
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Published: 01 December 2008
Fig. 9 Microstructure in a Cd-10Cu sample that has passed a peritectic reaction. The primary Cu 5 Cd 8 crystals are white, the dark matrix is cadmium, and the peritectically formed CuCd 3 is gray.
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Published: 01 December 2008
Fig. 12 Temperature range of peritectic reaction in iron-carbon alloys as a function of carbon content and the solidification rate. The temperature gradient, G , is 6000 K/m.
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Published: 01 December 2008
Fig. 15 Nickel distribution after peritectic reaction in a steel containing 4 wt% Ni. The temperature gradient was 60 K/cm. Calculations were made at different solidification rates. The dotted line shows the nickel distribution at the start of the peritectic reaction. δ is primary ferrite, γ
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Image
Published: 01 December 2008
Fig. 19 Three stages of a peritectic reaction in a unidirectionally solidified high-speed steel. (a) First-stage structure. Dark gray is austenite, white is ferrite. The mottled structure is quenched liquid. (b) Subsequent peritectic transformation of (a). (c) Further peritectic transformation
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