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Image
Weld metal microstructure of HSLA steel. A, grain-boundary ferrite; B, acic...
Available to PurchasePublished: 01 January 1990
Fig. 5 Weld metal microstructure of HSLA steel. A, grain-boundary ferrite; B, acicular ferrite; C, bainite; D, sideplate ferrite
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Image
Ferrite/austenite grain-boundary ditching in as-cast ACI CF-8. The specimen...
Available to PurchasePublished: 01 January 2005
Fig. 14 Ferrite/austenite grain-boundary ditching in as-cast ACI CF-8. The specimen, which contained 3% ferrite, was electrochemical potentiokinetic reactivation tested. SEM micrograph. Original magnification 4550×. Source: Ref 7
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Series: ASM Handbook
Volume: 6
Publisher: ASM International
Published: 01 January 1993
DOI: 10.31399/asm.hb.v06.a0001463
EISBN: 978-1-62708-173-3
... Abstract This article discusses the metallurgical aspects of underwater welds. It describes the microstructural development, which mainly includes three types of ferrite associated with low carbon steel weld metal: grain-boundary ferrite, sideplate ferrite, and acicular ferrite. The article...
Abstract
This article discusses the metallurgical aspects of underwater welds. It describes the microstructural development, which mainly includes three types of ferrite associated with low carbon steel weld metal: grain-boundary ferrite, sideplate ferrite, and acicular ferrite. The article explains the factors that affect heat-affected zone (HAZ) cracking. These include hydrogen from the weld pool, microstructures that develop in the HAZ, and stress levels that develop in the weld joint. The article describes the welding practices that can reduce residual stresses. It explains the effect of water pressure on the formation of porosity in underwater gravity welding. The article concludes with a discussion on the practical applications of underwater welding.
Image
Ferrite grains and grain boundaries in a low-carbon ferritic sheet steel et...
Available to PurchasePublished: 01 December 1998
Fig. 1 Ferrite grains and grain boundaries in a low-carbon ferritic sheet steel etched with 2% nital. 100×
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Image
19 mm (0.75 in.) A-710 steel plate, last pass (12th) of a submerged arc sin...
Available to PurchasePublished: 01 December 2004
Fig. 19 19 mm (0.75 in.) A-710 steel plate, last pass (12th) of a submerged arc single-V butt weld. Heat input: 1.3 MJ/m. Grain-boundary ferrite on prior austenite grain boundaries in a microstructure of fine acicular ferrite. Etchant: 2% nital. Magnification: 500×
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Image
Micrographs showing typical microstructures in low-alloy steel weld metal. ...
Available to PurchasePublished: 31 October 2011
; LB, lower bainite; PF, polygonal ferrite; GF, grain-boundary ferrite; WF, Widmanstätten ferrite; AF, acicular ferrite. Source: Ref 20
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Image
Micrographs showing typical microstructures in low-carbon steel weld metal ...
Available to PurchasePublished: 01 January 1993
Fig. 16 Micrographs showing typical microstructures in low-carbon steel weld metal (nital etch). A, grain boundary ferrite [PF(G)]; B, polygonal ferrite [PF(I)]; C, Widmanstätten ferrite [FS(SP)]; D, acicular ferrite (AF); E, upper bainite [FS(UB)]; F, lower bainite [FS(LB)] and/or martensite
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Image
Published: 01 December 2004
Fig. 16 16 mm ( 5 8 in.) A-36 steel plate, single-V butt multiple-pass shielded metal arc weld. Heat input: 1.3 MJ/m. Weld wire: AWS E7018. Low-carbon fusion-zone microstructure showing veins of grain-boundary ferrite on prior austenite grain boundaries. Etchant: 2% nital
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Image
13 mm (0.5 in.) Lukens Frostline steel plate, submerged arc bead-on-plate w...
Available to PurchasePublished: 01 December 2004
Fig. 21 13 mm (0.5 in.) Lukens Frostline steel plate, submerged arc bead-on-plate weld. Heat input: 1.9 MJ/m. Weld wire: AWS E70S-3. Fusion-zone microstructure with Widmanstätten ferrite growth from grain-boundary ferrite with coarse acicular ferrite. Etchant: 2% nital. Magnification: 500×
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Image
1045 steel bar normalized by austenitizing at 1095 °C (2000 °F) and cooling...
Available to PurchasePublished: 01 August 2013
Fig. 2 1045 steel bar normalized by austenitizing at 1095 °C (2000 °F) and cooling in air. Structure is pearlite (gray) with a network of grain-boundary ferrite (white) and a few side plates of ferrite. Picral etch. Original magnification: 500×
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Image
International Institute of Welding scheme for classifying microstructural c...
Available to PurchasePublished: 01 January 1993
Fig. 15 International Institute of Welding scheme for classifying microstructural constituents in ferritic steel weld metals with the optical microscope. Source: Ref 23 Category Abbreviation Primary ferrite PF Grain boundary ferrite PF(G) Intragranular polygonal
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Image
Mixed-mode fracture in a carbon steel with cleavage fracture through the pe...
Available to PurchasePublished: 01 June 2024
Fig. 21 Mixed-mode fracture in a carbon steel with cleavage fracture through the pearlite grains and dimpled rupture through the grain-boundary ferrite (arrow). Original magnification: 390×
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Image
Published: 01 December 2004
Fig. 22 16 mm ( 5 8 in.) A-36 steel plate, multiple-pass shielded metal arc single-V butt weld. Heat input: 1.3 MJ/m. Weld wire: AWS E7018. Fusion-zone microstructure containing bainite and ferrite-carbide aggregate in coarse grain-boundary ferrite. Etchant: 2% nital. Magnification
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Image
A crack-blunting mechanism resulting from crack propagation into grain boun...
Available to PurchasePublished: 01 January 1996
Fig. 15 A crack-blunting mechanism resulting from crack propagation into grain boundary ferrite in proeutectoid alloys. Courtesy of American Society for Testing and Materials
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Image
Cementite (arrows) at ferrite grain boundaries in a batch-annealed 0.04% C ...
Available to Purchase
in Metallography and Microstructures of Low-Carbon and Coated Steels
> Metallography and Microstructures
Published: 01 December 2004
Fig. 7 Cementite (arrows) at ferrite grain boundaries in a batch-annealed 0.04% C steel. Marshall's reagent. 500×
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Image
Microstructure of low-carbon steel showing ferrite grain boundaries. 2% nit...
Available to Purchase
in Metallography and Microstructures of Carbon and Low-Alloy Steels[1]
> Metallography and Microstructures
Published: 01 December 2004
Fig. 40 Microstructure of low-carbon steel showing ferrite grain boundaries. 2% nital etch. Original magnification 200×
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Image
Microstructure of ferritic steel with grain-boundary carbides. Note that th...
Available to Purchase
in Metallography and Microstructures of Carbon and Low-Alloy Steels[1]
> Metallography and Microstructures
Published: 01 December 2004
Fig. 58 Microstructure of ferritic steel with grain-boundary carbides. Note that the carbides are standing above the ferrite. Unetched (as-polished). Observed in differential interference contrast. Original magnification 200×
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Image
Grain boundary martensite formation in a type 430 ferritic stainless steel ...
Available to PurchasePublished: 01 January 1993
Fig. 5 Grain boundary martensite formation in a type 430 ferritic stainless steel gas-tungsten arc weld. (a) Fusion zone. 100×. (b) Heat-affected zone. 150×. Source: Ref 47 , 48
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Image
Ferrite grain boundaries in interstitial-free sheet steel etched using Mars...
Available to PurchasePublished: 15 December 2019
Fig. 6 Ferrite grain boundaries in interstitial-free sheet steel etched using Marshall’s reagent plus ~1% hydrofluoric acid; nital has no effect on interstitial-free steels. Original magnification: 200×
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Series: ASM Handbook
Volume: 6
Publisher: ASM International
Published: 01 January 1993
DOI: 10.31399/asm.hb.v06.a0001341
EISBN: 978-1-62708-173-3
... Abbreviation Primary ferrite PF Grain boundary ferrite PF(G) Intragranular polygonal ferrite PF(I) Ferrite with second phase FS Ferrite with nonaligned second phase FS(NA) Ferrite with aligned second phase FS(A) Ferrite side plates FS(SP) Bainite FS(B) Upper...
Abstract
Solid-state transformations occurring in a weld are highly nonequilibrium in nature and differ distinctly from those experienced during casting, thermomechanical processing, and heat treatment. This article focuses on welding metallurgy of fusion welding of steels and highlights the fundamental principles that form the basis of many of the developments in steels and consumables for welding. Examples in the article are largely drawn from the well-known and relatively well-studied case of ferritic steel weldments to illustrate the special physical metallurgical considerations brought about by the weld thermal cycles and by the welding environment. The article provides information on welds in other alloy systems such as stainless steels and aluminum-base, nickel-base, and titanium-base alloys.
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