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Series: ASM Technical Books
Publisher: ASM International
Published: 01 February 2005
DOI: 10.31399/asm.tb.chffa.t51040059
EISBN: 978-1-62708-300-3
... Abstract This chapter discusses the factors that influence temperature in forging operations and presents equations that can be used to predict and control it. The discussion covers heat generation and transfer, the effect of metal flow, temperature measurement, testing methods...
Abstract
This chapter discusses the factors that influence temperature in forging operations and presents equations that can be used to predict and control it. The discussion covers heat generation and transfer, the effect of metal flow, temperature measurement, testing methods, and the influence of equipment-related parameters such as press speed, contact time, and tooling geometries.
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(a) Heat transfer between the die and injected metal, (b) metal flow analys...
Available to PurchasePublished: 01 December 2018
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Polishing of heat-transfer tubes from erosion by sand in a fluidized-bed co...
Available to PurchasePublished: 01 December 2015
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Carbon steel heat-transfer tube from a fluidized bed that was damaged by er...
Available to PurchasePublished: 01 December 2015
Fig. 2 Carbon steel heat-transfer tube from a fluidized bed that was damaged by erosion and subsequent rusting
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Comparison of the heat-transfer coefficients achievable with different gas-...
Available to Purchase
in Transformation of Austenite and Quenching of Steel
> Practical Heat Treating<subtitle>Basic Principles</subtitle>
Published: 31 December 2020
Fig. 14 Comparison of the heat-transfer coefficients achievable with different gas-quenching media for bulk-loading and single-component quenching Source: Ref 18
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Heat-transfer coefficient and temperature changes in a typical hot forging ...
Available to PurchasePublished: 01 February 2005
Fig. 22.8 Heat-transfer coefficient and temperature changes in a typical hot forging operation (A, heated billet resting on lower die; B, contact time under pressure; C, forging removed from lower die; D, lubrication of die; E, dwell time with no billet on lower die before next cycle begins
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Published: 01 August 2012
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Comparison of punch load predictions using various heat-transfer coefficien...
Available to PurchasePublished: 01 August 2012
Fig. 5.35 Comparison of punch load predictions using various heat-transfer coefficients (HTC = kW/m 2 • °C) with experiments (5 mm/s at 250 °C). LDR, limiting draw ratio. Source: Ref 5.31
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Predicted thickness distribution comparison with various heat-transfer coef...
Available to PurchasePublished: 01 August 2012
Fig. 5.36 Predicted thickness distribution comparison with various heat-transfer coefficients (HTC) (5 mm/s at 250 °C). LDR, limiting draw ratio. Source: Ref 5.31
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Published: 01 August 2012
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Heat-transfer coefficient as a function of pressure for both-sided metallic...
Available to PurchasePublished: 01 August 2012
Fig. 7.16 Heat-transfer coefficient as a function of pressure for both-sided metallic contact. Source: Ref 7.11
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Contact heat-transfer coefficient as a function of contact pressure and dis...
Available to PurchasePublished: 01 August 2012
Fig. 7.17 Contact heat-transfer coefficient as a function of contact pressure and distance between tool and sheet material surface. Source: Ref 7.14
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Published: 01 August 2012
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Setup used in the ring test for the measurement of interface heat transfer ...
Available to PurchasePublished: 01 February 2005
Fig. 6.8 Setup used in the ring test for the measurement of interface heat transfer coefficient. [ Burte et al., 1989 ]
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Plot of surface-to-center temperature ratio vs. the heat-transfer coefficie...
Available to PurchasePublished: 01 January 1998
Fig. 6-11 Plot of surface-to-center temperature ratio vs. the heat-transfer coefficient, h , to show the effect of varying tool steel slug diameters ranging from 25 to 250 mm (1 to 10 in.). Source: Ref 4
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Plot of cooling rate at the center of the slug vs. the heat-transfer coeffi...
Available to PurchasePublished: 01 January 1998
Fig. 6-12 Plot of cooling rate at the center of the slug vs. the heat-transfer coefficient, h , of M2 tool steel to show the effect of varying diameters over the temperature range of 1200 to 600 °C (2190 to 1110 °F). Source: Ref 4
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Published: 01 January 1998
Fig. 6-14 Heat-transfer coefficient, h , rises with the increase in velocity of the fluidized bed until a peak value, h max, is reached at the optimum velocity, V opt . Source: Ref 7
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Heat transfer correlations between the position in cylinders and the positi...
Available to PurchasePublished: 01 December 1996
Fig. 4-14 Heat transfer correlations between the position in cylinders and the position on the Jominy bar. (From C.F. Jatczak, Metal Progress , Vol 100, No. 3, p 60 (1971), Ref 7 )
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Heat transfer correlations between the position in cylinders and the positi...
Available to PurchasePublished: 01 December 1996
Fig. 4-15 (Part 1) Heat transfer correlations between the position in cylinders and the position on the Jominy bar. (From Metals Handbook , 9th edition, Vol 1, Properties and Selection: Irons and Steels , American Society for Metals, Metals Park, Ohio (1978), Ref 8 )
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Heat transfer correlations between the position in cylinders and the positi...
Available to PurchasePublished: 01 December 1996
Fig. 4-15 (Part 2) Heat transfer correlations between the position in cylinders and the position on the Jominy bar. (From Metals Handbook , 9th edition, Vol 1, Properties and Selection: Irons and Steels , American Society for Metals, Metals Park, Ohio (1978), Ref 8 ) Quenching medium
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