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high-carbon steel
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in Conventional Heat Treatment—Basic Concepts
> Metallography of Steels<subtitle>Interpretation of Structure and the Effects of Processing</subtitle>
Published: 01 August 2018
Fig. 10.76 Forge weld region of a steel hoe blade. High carbon steel (to the right) welded to low carbon steel (to the left). Region not quenched. Microstructure is pearlite in the right side and ferrite and pearlite in the left side. Etchant: nital.
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in Conventional Heat Treatment—Basic Concepts
> Metallography of Steels<subtitle>Interpretation of Structure and the Effects of Processing</subtitle>
Published: 01 August 2018
Fig. 10.77 Forge weld region of a steel hoe blade. High carbon steel (to the right) welded to low carbon steel (to the left). Quenched region. Martensite and elongated nonmetallic inclusions (to the right) and ferrite, acicular ferrite and martensite (to the left). Etchant: nital.
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in Conventional Heat Treatment—Basic Concepts
> Metallography of Steels<subtitle>Interpretation of Structure and the Effects of Processing</subtitle>
Published: 01 August 2018
Fig. 10.55 High carbon steel quenched after overheating in the austenitic single phase field. Very coarse martensite. Etchant: nital.
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Published: 01 August 1999
Fig. 8.1 Austenitization of a high-carbon steel. Original structure: ferrite and spheroidized cementite. The dark-etching areas were austenitic prior to quenching. The mid-tone areas are cementite. The lightest areas are ferrite. (a) Unheated. Picral. 1500×. (b) Heated at 745 °C for 5 s
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Published: 31 December 2020
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Published: 01 October 2011
Fig. 8.3 Spark patterns used to identify low-, medium-, and high-carbon steels. (a) Sparks from 1015 steel (0.15% C). (b) Sparks from 1045 steel (0.45% C). (c) Sparks from 1095 steel (1.0% C)
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Published: 01 January 1998
Fig. 5-29 Multiplying factors for alloying elements in high-carbon steels quenched from 830 °C (1525 °F). See text for discussion of Si*. Source: Ref 50
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Published: 01 January 1998
Fig. 5-30 Multiplying factors for alloying elements in high-carbon steels quenched from 927 °C (1700 °F). See text for discussion of Si*. Source: Ref 50
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Series: ASM Technical Books
Publisher: ASM International
Published: 01 January 2015
DOI: 10.31399/asm.tb.spsp2.t54410315
EISBN: 978-1-62708-265-5
... is a TEM micrograph showing the pearlitic microstructure in a high-carbon steel rail. The interlamellar spacing between the ferrite and cementite phases is quite fine; regions where the lamellae are parallel or almost parallel are referred to as colonies. This remarkable composite structure of ductile...
Abstract
This chapter describes the mechanical properties of fully pearlitic microstructures and their suitability for wire and rail applications. It begins by describing the ever-increasing demands placed on rail steels and the manufacturing methods that have been developed in response. It then explains how wire drawing, patenting, and the Stelmor process affect microstructure, and describes various fracture mechanisms and how they appear on steel wire fracture surfaces. The chapter concludes by discussing the effects of torsional deformation, delamination, galvanizing, and aging on patented and drawn wires.
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Published: 01 January 1998
Fig. 3-4 Macroetch quality of high-carbon sulfurized M2-type high-speed steel produced conventionally and by electroflux remelting. (a) From static cast 350 mm (14 in.) square ingot. Disks hardened and tempered. (b) and (c) From electroflux remelted 400 mm (16 in.) diam ingot. Polished
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Published: 01 January 1998
Fig. 17-20 Grinding damage on a high-carbon, high-chromium tool steel slitter knife that spalled in service
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Published: 01 August 1999
Fig. 5.12 (Part 1) Higher-strength grade of HSLA hot-rolled steel strip. High carbon, high manganese, microalloys: niobium and vanadium. 0.085C-0.19Si-1.42Mn-0.003M0-0.045Nb-0.003Ti-0.038V-0.001S-0.015P (wt%). 220 HV. (a) Quarter-thickness region. Nital. 100×. (b) Quarter-thickness region
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Published: 01 December 1995
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Published: 01 December 1995
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Published: 01 November 2007
Fig. 3.7 Oxidation of carbon steel and high-strength low-alloy (HSLA) steel in air. Source: Ref 13 , reproduced from Ref 14
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Published: 01 December 2015
Fig. 3 Oxidation of carbon steel and high-strength low-alloy (HSLA) steel in air. Source: Ref 2
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Published: 01 December 1984
Figure 3-42 Microstructure of dual-phase low-carbon sheet steel with low (top) and high (bottom) martensite contents etched with Le Pera’s reagent (left) and 20% Na 2 S 2 O 5 (right), 500×. (From Marder and Benscoter, Ref. 93, courtesy of Elsevier Science Publishing Co., Inc.)
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in Introduction to Steels and Cast Irons
> Metallographer’s Guide<subtitle>Practices and Procedures for Irons and Steels</subtitle>
Published: 01 March 2002
Fig. 1.2(c) Micrograph of high-carbon AISI/SAE 1095 steel showing a matrix of pearlite and some grain-boundary cementite. Etched in 4% picral. 500×
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Published: 01 December 2004
Fig. 13 Stress-time diagrams from high strain rate tensile testing of carbon steel (0.45% C) between room temperature and 600 °C (1100 °F)
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Published: 01 January 1998
Fig. 8-15 Length changes on tempering a high-carbon L2 tool steel. Tempering time is considered to begin 1.5 h after quenching. Source: Ref 13
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