How to use

Advanced Search

Search Sites

TOP
Tetsu-to-Hagané
Vol. 49 (1963), No. 2

Tetsu-to-Hagané Vol. 49 (1963), No. 2

Grid List Abstracts

ONLINE ISSN:	1883-2954
PRINT ISSN:	0021-1575
Publisher:	The Iron and Steel Institute of Japan

Backnumber

Vol. 110 (2024)
1. No.15
2. No.14
3. No.13
4. No.12
5. No.11
6. No.10
7. No.9
8. No.8
9. No.7
10. No.6
11. No.5
12. No.4
13. No.3
14. No.2
15. No.1
Vol. 109 (2023)
1. No.12
2. No.11
3. No.10
4. No.9
5. No.8
6. No.7
7. No.6
8. No.5
9. No.4
10. No.3
11. No.2
12. No.1
Vol. 108 (2022)
1. No.12
2. No.11
3. No.10
4. No.9
5. No.8
6. No.7
7. No.6
8. No.5
9. No.4
10. No.3
11. No.2
12. No.1
Vol. 107 (2021)
1. No.12
2. No.11
3. No.10
4. No.9
5. No.8
6. No.7
7. No.6
8. No.5
9. No.4
10. No.3
11. No.2
12. No.1
Vol. 106 (2020)
1. No.12
2. No.11
3. No.10
4. No.9
5. No.8
6. No.7
7. No.6
8. No.5
9. No.4
10. No.3
11. No.2
12. No.1
Vol. 105 (2019)
1. No.12
2. No.11
3. No.10
4. No.9
5. No.8
6. No.7
7. No.6
8. No.5
9. No.4
10. No.3
11. No.2
12. No.1
Vol. 104 (2018)
1. No.12
2. No.11
3. No.10
4. No.9
5. No.8
6. No.7
7. No.6
8. No.5
9. No.4
10. No.3
11. No.2
12. No.1
Vol. 103 (2017)
1. No.12
2. No.11
3. No.10
4. No.9
5. No.8
6. No.7
7. No.6
8. No.5
9. No.4
10. No.3
11. No.2
12. No.1
Vol. 102 (2016)
1. No.12
2. No.11
3. No.10
4. No.9
5. No.8
6. No.7
7. No.6
8. No.5
9. No.4
10. No.3
11. No.2
12. No.1
Vol. 101 (2015)
1. No.12
2. No.11
3. No.10
4. No.9
5. No.8
6. No.7
7. No.6
8. No.5
9. No.4
10. No.3
11. No.2
12. No.1
Vol. 100 (2014)
1. No.12
2. No.11
3. No.10
4. No.9
5. No.8
6. No.7
7. No.6
8. No.5
9. No.4
10. No.3
11. No.2
12. No.1
Vol. 99 (2013)
1. No.12
2. No.11
3. No.10
4. No.9
5. No.8
6. No.7
7. No.6
8. No.5
9. No.4
10. No.3
11. No.2
12. No.1
Vol. 98 (2012)
1. No.12
2. No.11
3. No.10
4. No.9
5. No.8
6. No.7
7. No.6
8. No.5
9. No.4
10. No.3
11. No.2
12. No.1
Vol. 97 (2011)
1. No.12
2. No.11
3. No.10
4. No.9
5. No.8
6. No.7
7. No.6
8. No.5
9. No.4
10. No.3
11. No.2
12. No.1
Vol. 96 (2010)
1. No.12
2. No.11
3. No.10
4. No.9
5. No.8
6. No.7
7. No.6
8. No.5
9. No.4
10. No.3
11. No.2
12. No.1
Vol. 95 (2009)
1. No.12
2. No.11
3. No.10
4. No.9
5. No.8
6. No.7
7. No.6
8. No.5
9. No.4
10. No.3
11. No.2
12. No.1
Vol. 94 (2008)
1. No.12
2. No.11
3. No.10
4. No.9
5. No.8
6. No.7
7. No.6
8. No.5
9. No.4
10. No.3
11. No.2
12. No.1
Vol. 93 (2007)
1. No.12
2. No.11
3. No.10
4. No.9
5. No.8
6. No.7
7. No.6
8. No.5
9. No.4
10. No.3
11. No.2
12. No.1
Vol. 92 (2006)
1. No.12
2. No.11
3. No.10
4. No.9
5. No.8
6. No.7
7. No.6
8. No.5
9. No.4
10. No.3
11. No.2
12. No.1
Vol. 91 (2005)
1. No.12
2. No.11
3. No.10
4. No.9
5. No.8
6. No.7
7. No.6
8. No.5
9. No.4
10. No.3
11. No.2
12. No.1
Vol. 90 (2004)
1. No.12
2. No.11
3. No.10
4. No.9
5. No.8
6. No.7
7. No.6
8. No.5
9. No.4
10. No.3
11. No.2
12. No.1
Vol. 89 (2003)
1. No.12
2. No.11
3. No.10
4. No.9
5. No.8
6. No.7
7. No.6
8. No.5
9. No.4
10. No.3
11. No.2
12. No.1
Vol. 88 (2002)
1. No.12
2. No.11
3. No.10
4. No.9
5. No.8
6. No.7
7. No.6
8. No.5
9. No.4
10. No.3
11. No.2
12. No.1
Vol. 87 (2001)
1. No.12
2. No.11
3. No.10
4. No.9
5. No.8
6. No.7
7. No.6
8. No.5
9. No.4
10. No.3
11. No.2
12. No.1
Vol. 86 (2000)
1. No.12
2. No.11
3. No.10
4. No.9
5. No.8
6. No.7
7. No.6
8. No.5
9. No.4
10. No.3
11. No.2
12. No.1
Vol. 85 (1999)
1. No.12
2. No.11
3. No.10
4. No.9
5. No.8
6. No.7
7. No.6
8. No.5
9. No.4
10. No.3
11. No.2
12. No.1
Vol. 84 (1998)
1. No.12
2. No.11
3. No.10
4. No.9
5. No.8
6. No.7
7. No.6
8. No.5
9. No.4
10. No.3
11. No.2
12. No.1
Vol. 83 (1997)
1. No.12
2. No.11
3. No.10
4. No.9
5. No.8
6. No.7
7. No.6
8. No.5
9. No.4
10. No.3
11. No.2
12. No.1
Vol. 82 (1996)
1. No.12
2. No.11
3. No.10
4. No.9
5. No.8
6. No.7
7. No.6
8. No.5
9. No.4
10. No.3
11. No.2
12. No.1
Vol. 81 (1995)
1. No.12
2. No.11
3. No.10
4. No.9
5. No.8
6. No.7
7. No.6
8. No.5
9. No.4
10. No.3
11. No.2
12. No.1
Vol. 80 (1994)
1. No.12
2. No.11
3. No.10
4. No.9
5. No.8
6. No.7
7. No.6
8. No.5
9. No.4
10. No.3
11. No.2
12. No.1
Vol. 79 (1993)
1. No.12
2. No.11
3. No.10
4. No.9
5. No.8
6. No.7
7. No.6
8. No.5
9. No.4
10. No.3
11. No.2
12. No.1
Vol. 78 (1992)
1. No.12
2. No.11
3. No.10
4. No.9
5. No.8
6. No.7
7. No.6
8. No.5
9. No.4
10. No.3
11. No.2
12. No.1
Vol. 77 (1991)
1. No.12
2. No.11
3. No.10
4. No.9
5. No.8
6. No.7
7. No.6
8. No.5
9. No.4
10. No.3
11. No.2
12. No.1
Vol. 76 (1990)
1. No.12
2. No.11
3. No.10
4. No.9
5. No.8
6. No.7
7. No.6
8. No.5
9. No.4
10. No.3
11. No.2
12. No.1
Vol. 75 (1989)
1. No.12
2. No.11
3. No.10
4. No.9
5. No.8
6. No.7
7. No.6
8. No.5
9. No.4
10. No.3
11. No.2
12. No.1
Vol. 74 (1988)
1. No.12
2. No.11
3. No.10
4. No.9
5. No.8
6. No.7
7. No.6
8. No.5
9. No.4
10. No.3
11. No.2
12. No.1
Vol. 73 (1987)
1. No.16
2. No.15
3. No.14
4. No.13
5. No.12
6. No.11
7. No.10
8. No.9
9. No.8
10. No.7
11. No.6
12. No.5
13. No.4
14. No.3
15. No.2
16. No.1
Vol. 72 (1986)
1. No.16
2. No.15
3. No.14
4. No.13
5. No.12
6. No.11
7. No.10
8. No.9
9. No.8
10. No.7
11. No.6
12. No.5
13. No.4
14. No.3
15. No.2
16. No.1
Vol. 71 (1985)
1. No.16
2. No.15
3. No.14
4. No.13
5. No.12
6. No.11
7. No.10
8. No.9
9. No.8
10. No.7
11. No.6
12. No.5
13. No.4
14. No.3
15. No.2
16. No.1
Vol. 70 (1984)
1. No.16
2. No.15
3. No.14
4. No.13
5. No.12
6. No.11
7. No.10
8. No.9
9. No.8
10. No.7
11. No.6
12. No.5
13. No.4
14. No.3
15. No.2
16. No.1
Vol. 69 (1983)
1. No.16
2. No.15
3. No.14
4. No.13
5. No.12
6. No.11
7. No.10
8. No.9
9. No.8
10. No.7
11. No.6
12. No.5
13. No.4
14. No.3
15. No.2
16. No.1
Vol. 68 (1982)
1. No.16
2. No.15
3. No.14
4. No.13
5. No.12
6. No.11
7. No.10
8. No.9
9. No.8
10. No.7
11. No.6
12. No.5
13. No.4
14. No.3
15. No.2
16. No.1
Vol. 67 (1981)
1. No.16
2. No.15
3. No.14
4. No.13
5. No.12
6. No.11
7. No.10
8. No.9
9. No.8
10. No.7
11. No.6
12. No.5
13. No.4
14. No.3
15. No.2
16. No.1
Vol. 66 (1980)
1. No.14
2. No.13
3. No.12
4. No.11
5. No.10
6. No.9
7. No.8
8. No.7
9. No.6
10. No.5
11. No.4
12. No.3
13. No.2
14. No.1
Vol. 65 (1979)
1. No.14
2. No.13
3. No.12
4. No.11
5. No.10
6. No.9
7. No.8
8. No.7
9. No.6
10. No.5
11. No.4
12. No.3
13. No.2
14. No.1
Vol. 64 (1978)
1. No.14
2. No.13
3. No.12
4. No.11
5. No.10
6. No.9
7. No.8
8. No.7
9. No.6
10. No.5
11. No.4
12. No.3
13. No.2
14. No.1
Vol. 63 (1977)
1. No.14
2. No.13
3. No.12
4. No.11
5. No.10
6. No.9
7. No.8
8. No.7
9. No.6
10. No.5
11. No.4
12. No.3
13. No.2
14. No.1
Vol. 62 (1976)
1. No.14
2. No.13
3. No.12
4. No.11
5. No.10
6. No.9
7. No.8
8. No.7
9. No.6
10. No.5
11. No.4
12. No.3
13. No.2
14. No.1
Vol. 61 (1975)
1. No.15
2. No.14
3. No.13
4. No.12
5. No.11
6. No.10
7. No.9
8. No.8
9. No.7
10. No.6
11. No.5
12. No.4
13. No.3
14. No.2
15. No.1
Vol. 60 (1974)
1. No.14
2. No.13
3. No.12
4. No.11
5. No.10
6. No.9
7. No.8
8. No.7
9. No.6
10. No.5
11. No.4
12. No.3
13. No.2
14. No.1
Vol. 59 (1973)
1. No.14
2. No.13
3. No.12
4. No.11
5. No.10
6. No.9
7. No.8
8. No.7
9. No.6
10. No.5
11. No.4
12. No.3
13. No.2
14. No.1
Vol. 58 (1972)
1. No.14
2. No.13
3. No.12
4. No.11
5. No.10
6. No.9
7. No.8
8. No.7
9. No.6
10. No.5
11. No.4
12. No.3
13. No.2
14. No.1
Vol. 57 (1971)
1. No.14
2. No.13
3. No.12
4. No.11
5. No.10
6. No.9
7. No.8
8. No.7
9. No.6
10. No.5
11. No.4
12. No.3
13. No.2
14. No.1
Vol. 56 (1970)
1. No.14
2. No.13
3. No.12
4. No.11
5. No.10
6. No.9
7. No.8
8. No.7
9. No.6
10. No.5
11. No.4
12. No.3
13. No.2
14. No.1
Vol. 55 (1969)
1. No.14
2. No.13
3. No.12
4. No.11
5. No.10
6. No.9
7. No.8
8. No.7
9. No.6
10. No.5
11. No.4
12. No.3
13. No.2
14. No.1
Vol. 54 (1968)
1. No.14
2. No.13
3. No.12
4. No.11
5. No.10
6. No.9
7. No.8
8. No.7
9. No.6
10. No.5
11. No.4
12. No.3
13. No.2
14. No.1
Vol. 53 (1967)
1. No.14
2. No.13
3. No.12
4. No.11
5. No.10
6. No.9
7. No.8
8. No.7
9. No.6
10. No.5
11. No.4
12. No.3
13. No.2
14. No.1
Vol. 52 (1966)
1. No.13
2. No.12
3. No.11
4. No.10
5. No.9
6. No.8
7. No.7
8. No.6
9. No.5
10. No.4
11. No.3
12. No.2
13. No.1
Vol. 51 (1965)
1. No.13
2. No.12
3. No.11
4. No.10
5. No.9
6. No.8
7. No.7
8. No.6
9. No.5
10. No.4
11. No.3
12. No.2
13. No.1
Vol. 50 (1964)
1. No.14
2. No.13
3. No.12
4. No.11
5. No.10
6. No.9
7. No.8
8. No.7
9. No.6
10. No.5
11. No.4
12. No.3
13. No.2
14. No.1
Vol. 49 (1963)
1. No.14
2. No.13
3. No.12
4. No.11
5. No.10
6. No.9
7. No.8
8. No.7
9. No.6
10. No.5
11. No.4
12. No.3
13. No.2
14. No.1
Vol. 48 (1962)
1. No.14
2. No.13
3. No.12
4. No.11
5. No.10
6. No.9
7. No.8
8. No.7
9. No.6
10. No.5
11. No.4
12. No.3
13. No.2
14. No.1
Vol. 47 (1961)
1. No.14
2. No.13
3. No.12
4. No.11
5. No.10
6. No.9
7. No.8
8. No.7
9. No.6
10. No.5
11. No.4
12. No.3
13. No.2
14. No.1
Vol. 46 (1960)
1. No.14
2. No.13
3. No.12
4. No.11
5. No.10
6. No.9
7. No.8-supl
8. No.7
9. No.6
10. No.5
11. No.4
12. No.3
13. No.2
14. No.1
Vol. 45 (1959)
1. No.12
2. No.11
3. No.10
4. No.9
5. No.8
6. No.7
7. No.6
8. No.5
9. No.4
10. No.3
11. No.2
12. No.1
Vol. 44 (1958)
1. No.12
2. No.11
3. No.10
4. No.9
5. No.8
6. No.7
7. No.6
8. No.5
9. No.4
10. No.3
11. No.2
12. No.1
Vol. 43 (1957)
1. No.12
2. No.11
3. No.10
4. No.9
5. No.8
6. No.7
7. No.6
8. No.5
9. No.4
10. No.3
11. No.2
12. No.1
Vol. 42 (1956)
1. No.12
2. No.11
3. No.10
4. No.9
5. No.8
6. No.7
7. No.6
8. No.5
9. No.4
10. No.3
11. No.2
12. No.1
Vol. 41 (1955)
1. No.12
2. No.11
3. No.10
4. No.9
5. No.8
6. No.7
7. No.6
8. No.5
9. No.4
10. No.3
11. No.2
12. No.1

Keyword Ranking

21 Nov. (Last 30 Days)

Tetsu-to-Hagané Vol. 49 (1963), No. 2

鉄鋼製錬の物理化学に想う

三本木貢治

pp. 131-132

Bookmark

Detail

PDF Download

Share it with SNS

Article Title

鉄鋼製錬の物理化学に想う

Bibtex

Ris

On the Activity of Carbon in Molten Iron

Teinosuke YAGI, Yoichi ONO

pp. 133-138

Abstract

The knowledge of activity of the carbon in liquid iron is one of the most fundamental problems of iron-and steelmaking. But accurate values in the high-carbon range are not easily obtainable. because of experimental difficulties. So a statistical thermodynamical method was developed to estimate the activities in the whole system on the basis of available data.
Previous works assumed the “interstitial” model for the molten Fe-C system by analogy to austenite. Comparing the previous theory with experimental values, an inconsistency of the theory was found.
Paying special attention to the characteristics of liquid, that is, the absence of a long-range orderedness in the arrangement of atoms, the “substitutional” model was assumed which was in good agreement with experimental values in the whole system.

Bookmark

Detail

PDF Download

Share it with SNS

Article Title

On the Activity of Carbon in Molten Iron

Bibtex

Ris

Activity of the Carbon and the Oxygen in Molten Iron-Nickel and Iron-Chromium Alloys

Kazuhiro GOTO, Shiro BAN-YA, Sachio MATOBA

pp. 138-143

Abstract

The equilibrinm of CO-CO₂ gas mixture with the carbon and the oxygen in molten ironnickel and iron-chromium alloys was studied in the range of 0-100% Ni and 0-30% Cr at 1560°C, and following experimental results were obtained:
1. The relationships between the activity coefficients of the carbon or the oxygen and dissolved elements are expressed by the following equations.
∂logf^(Ni)_C/∂%Ni=0·011……<70%Ni
∂logf^(Cr)_C/∂%Cr=-0·033……<25%Cr
∂logf^(Ni)_o/∂%Ni=0·005……<60%Ni
2. The prodnct of the carbon and the oxygen in molten iron is decreased by addition of nickel, while it is increased by addition of chromium.

Bookmark

Detail

PDF Download

Share it with SNS

Article Title

Activity of the Carbon and the Oxygen in Molten Iron-Nickel and Iron-Chromium Alloys

Bibtex

Ris

Behavior of Alloying Elements and Reacting Time in Consumable-Electrode Arc-Melting

Mamoru NISHIHARA, Yoshiro YAGI, Kiichi NARITA, Masao KURIHARA

pp. 144-148

Abstract

Since consumable-electrode arc-melting is carried out at a high temperature in vacuum, some alloying elements of high vapor-pressure should evaporate in this method. In many meltings the Mn content is decreased clearly, but the contents of Cu and Sn, which show a high vapor-pressure next to Mn, is not decreased noticeably. Analyses of adhered substances on the wall of a crucible make clear that the Cu and Sn also evaporate, elements remelt into molten pool as the melting proceeds is ascertained by pulling-down and a pulling-down arcmelting shows that the evaporated elements remelt into molten pool as the melting process goes on. It should be one reason for that Cu and Sn is not decreased noticeably.
Durations of molten state under various melting conditions calculated from the shapes of molten pools are found to be rather short. Therefore the molten metal shall be solidified before various reactions will have completed.

Bookmark

Detail

PDF Download

Share it with SNS

Article Title

Behavior of Alloying Elements and Reacting Time in Consumable-Electrode Arc-Melting

Bibtex

Ris

Effect of Addition of Ti and B on Mn-Si, Mn-Si-Cr and Mn-Si-Mo Steels

Eiichiro ASANO, Toru ISHIDA, Hideo TAN

pp. 149-154

Abstract

Effects of addition of Ti and B on Mn-Si, Mn-Si-Cr or Mn-Si-Mo structural steel were studied in this report III, while effects of B and Mo on Mn-Si and Mn-Si-Cr steel had been studied in the last report II (Tets-to-Hagane, 47 (1961) 4, p. 585-591).
There were 18 grades of specimens tested. The 1st group contained 6 grades of Mn-Si steel, the 2nd group contained 7 grades of Mn-Si-Cr steel and the 3rd group contained 5 grades of Mn-Si-Mo steel.
All samples were melted with a high-frequency induction furnace and cast into about 7kg ingots, and then forged or rolled down to 16 or 35mm_??_ bars.
Specimens were tested under various conditions such as air-cooling or furnace-cooling after heating and quench-and-tempering.
Tensile strength, yield strength, elongation and reduction of area were determined by tensile test. Hardness-test and microstructure-tests as well as Jominy-end-quenching test to investigate into hardenability of specimens were also made.
The results obtained were summarized as follows:
(1) Addition of B to Mn-Si steel containning 0·3% Ti, improved hardness, tensile strength and yield point, and decreased elongation and reduction of area only a little, under the condition of air-cooling or quench-and-tempering at a point higher than 600°C.
(2) Effects of adding B to Mn-Si-Cr steel with 0·3% Ti on mechanical properties were not recognized apparently.
(3) Addition of B (0·0025-0·0050%) to Mn-Si-Mo steel containning 0·13% Ti was effective on improvement of hardness and tensile strength, while decrease of elongation and reduction of area was slight. This tendency was very evident in the condilion of tempering, especially.
(4) Ti should be treated as a deoxidizer or denitrider. From the viewpoint of mechanical properties, Ti content should be less than 0·3% in Mn-Si-Cr and Mn-Si-Mo steels.
From the viewpoint of hardenability, Ti content should be less than 0.1% in both Mn-Si steel and Mn-Si-Mo steels.
(5) Addition of B improved hardenability of Mn-Si, Mn-Si-Cr and Mn-Si-Mo steels.

Readers Who Read This Article Also Read

On the Equilibrium between Manganese and Oxygen in Liquid Iron

Tetsu-to-Hagané Vol.49(1963), No.5

On the Behavior of Several Kinds of Oxide Inclusion in Steels during Hot-rolling

Tetsu-to-Hagané Vol.54(1968), No.9

On the Reaction between Liquid Steel and Refractory under Vacuum

Tetsu-to-Hagané Vol.53(1967), No.7

Bookmark

Detail

PDF Download

Share it with SNS

Article Title

Effect of Addition of Ti and B on Mn-Si, Mn-Si-Cr and Mn-Si-Mo Steels

Bibtex

Ris

Vacuum-Melted Bearing Steels

Manabu UENO, Hirooki NAKJIMA, Sadao IKEDA

pp. 155-160

Abstract

The following studies were made for bearing steels which were melted in air (1 cast), melted in vacuum with an induction furnace (2 casts), and melted in vacuum with a consumable-electrode arc furnace (2 casts) respectively.
Comparing the content of non-metallic inclusions in five casts of these three melting processes with each other by means of point counting, the inclusion content in vacuummelted steels was decreased to about half of that in air-melted steels, and B type inclusion was especially decreased. Moreover, gas content was decreased markedly.
In metallographic tests, both the size and its deviation of carbide in vacuum-melted steels were a little smaller than that in air-melted steel. When the steels were austenitized, there was no remarkable difference in the amount of retained carbide. In the steels which contained vanadium, dissolution of carbide was more difficult. After quenching the amount of retained austnite and the hardness were not different between five casts.
Life tests were carried out by using the thrust-type life test machine. Cycles to flaking are 1·65×10⁶ in air-melted steels, 2·33×10⁶ and 2·88×10⁶ in two casts of vacuum induction-melted steels respectively, and 2·01×10⁷ and 6·66×10⁶ in two casts of consumable-electrode vacuum arc-melted steels respectively. With regerd to the standard deviations of logarithm of life cycles, vacuum induction-melted steels were inferior to air-melted steels, but vacuum arcmelted steels was superior. Therefore, it seemed that consumable-electrode vacuum arc-melted steels were superior to vacuum induction-melted and air-melted steels for the bearing uses.

Bookmark

Detail

PDF Download

Share it with SNS

Article Title

Vacuum-Melted Bearing Steels

Bibtex

Ris

Effect of Heat Treatment on High-Temperature Strength of A286 Alloy

Taro HASEGAWA, Fukunaga TERASAKI

pp. 160-165

Abstract

In order to improve the high-temperature strength of the heat-resistant alloy A286, it was suggested from the previous work (Zairyo Shiken, 10 (1961) No. 90, p. 70; Tetsu-to-Hagané, not yet published) that grain boundary precipitates such as G phase (Ni₁₃Si₆Ti₈) and η phase (Ni₃Ti) had to be eliminated by proper selections of heat treatment and/or chemical composition. From a point of view as abovementioned, the effect of heat treatment on the high-temperature strength was investigated in the present work. Solution temperatures were varied from 900°C to 1100°C and aging temperatures were selected at 650°C and 718°C. Creep rupture tests and short-time tensile tests at 650°C were carried out. X-ray diffraction was tested and an electron-microscope was used for the study of microstructures.
The results obtained showed that the grain boundary precipitates diminished with increasing solution temperature and decreasing aging temperature, and the high-temperature strength was increased with disappearance of grain boundary precipitates. In the microstructures as heat-treated with using a solution-temperature higher than 1040°C and an aging temperature of 718°C, precipitations of TiC with various flake-type morphology were observed at grain boundaries. These precipitates, however, seemed to have little effect on the high temperature strength.

Bookmark

Detail

PDF Download

Share it with SNS

Article Title

Effect of Heat Treatment on High-Temperature Strength of A286 Alloy

Bibtex

Ris

Effect of Manganese on High-Temperature Properties of N-155 Alloy

Renpei YODA, Heitaro YOSHIDA, Yuuichi SATO

pp. 166-173

Abstract

For the purpose of finding some low-cost alloys that resist to rupture at high stress at a temperature of 700-900°C, heat-resisting high-manganese steels in which part of nickel was replaced by manganese were investigated. Even if part of 10% Ni in 20% Ni content was replaced by 10% Mn, the creep rupture strength of 10% Mn alloy containing proper amount of carbon, and nitrogen was superior to that of N-155 alloy, and the high-manganese steels showed the least problems that might be posed by forging of high-alloy steels.
The reason was based on the fact that the 10% Mn alloy containing high carbon or high nitrogen could be forged, because the deformation resistance became lower as the manganese content was increased and therefore the alloy with the excellent forgeability could be prepared therewith. The alloy containing about 4% Mn had the longest creep rupture life.
But if the carbon content in 10% Mn alloy was increased to 0·48%, or the nitrogen content in it was increased to 0·38%, the rupture life became very longer and was equal to that of 4% Mn alloy at 700°C, and alloy that was more excellent in creep strength than N-155 alloy was obtained.
In this case, the creep rupture life of 10% Mn alloy at 700°C became longer by addition of vanadium or phosphorus, but the effects of these elements disappeared with the alloy at above 800°C. At 700°C, the rupture life of 10% Mn alloy containing phosphorus became about four times as long as that of the alloy without phosphorus addition, but the rupture elongation became lower. The oxidation-resistance was found to be less worse as the manganese content was increased, but remarkably worse by addition of vanadium or phosphorus.
Therefore, these alloying elements had a harmful effect on forgeability of the alloy, and there was a possibility of generation of cracking when the alloy containing phosphorus was forged. The best chemical composition of a high-manganese alloy obtained from the above facts was as follows:
C 0·21%, Cr 19·96%, Ni 9·52%, Co 20·13%, Mn 9·91%, Mo 3·01%, W 2·79%,
Cb 0·97%, N 0·38%, P 0·012%, Si 0·10%, O² 4·6 p. p. m.

Bookmark

Detail

PDF Download

Share it with SNS

Article Title

Effect of Manganese on High-Temperature Properties of N-155 Alloy

Bibtex

Ris

Current Topics on the Potential Uses of Uranium in Ferrous Metallurgy

Masayoshi HASEGAWA, Ichiro ONODA

pp. 174-194

Bookmark

Detail

PDF Download

Share it with SNS

Article Title

Current Topics on the Potential Uses of Uranium in Ferrous Metallurgy

Bibtex

Ris

Results of Research on Structure and Efficiency of Hot Stoves

pp. 195-224

Readers Who Read This Article Also Read

On Construction of the Tobata No.1 Blast Furnace and its Blowing-in

Tetsu-to-Hagané Vol.47(1961), No.1

日本鉄鋼協会第64回講演大会講演大要

Tetsu-to-Hagané Vol.48(1962), No.11

日本鉄鋼協会第95回講演大会講演概要

Tetsu-to-Hagané Vol.64(1978), No.4

Bookmark

Detail

PDF Download

Share it with SNS

Article Title

Results of Research on Structure and Efficiency of Hot Stoves

Bibtex

Ris

Some Arguments in the Panel Discussion Meeting

pp. 225-237

Bookmark

Detail

PDF Download

Share it with SNS

Article Title

Some Arguments in the Panel Discussion Meeting

Bibtex

Ris

抄録

河合重徳, 平井春彦, 荒木透, 伊藤邦夫, 森勉, 松尾宗次

pp. 238-240

Bookmark

Detail

PDF Download

Share it with SNS

Article Title

抄録

Bibtex

Ris

鉄鋼ニューズ

pp. 243-244

Bookmark

Detail

PDF Download

Share it with SNS

Article Title

鉄鋼ニューズ

Bibtex

Ris

特許記事

pp. 245-248

Bookmark

Detail

PDF Download

Share it with SNS

Article Title

特許記事

Bibtex

Ris

Article Access Ranking

21 Nov. (Last 30 Days)

In-situ Observation of Precipitation and Growth of MnS Inclusions during Solidification of a High Sulfur Steel

ISIJ International Advance Publication
Measurement of Bubble Size Distribution and Generation Position of Bubbles Generated during Smelting Reduction of Iron Oxide-containing Slag

ISIJ International Advance Publication
Injection of hydrogenous gases into the blast furnace tuyeres for reducing CO₂ emissions: a review

ISIJ International Advance Publication
Development of a Low-carbon Sintering Process Technology and Its Application to a Pilot-scale Sintering Testing

ISIJ International Vol.64(2024), No.13
Precipitation Behavior of MnS from Molten Iron to Al₂O₃ during Solidification

Tetsu-to-Hagané Advance Publication
Molecular dynamics simulation of viscosity of the CaO, MgO and Al₂O₃ melts

ISIJ International Advance Publication
Effect of Al Content on Precipitation Behavior of AIN Inclusions during Unidirectional Solidification Process of Fe-(0.5-2.0)%Al-2.0%Mn Alloys

Tetsu-to-Hagané Advance Publication
Quantitative Understanding of Solute Concentration Distribution by Microsegregation During Solidification

Tetsu-to-Hagané Advance Publication
SOKD: A soft optimization knowledge distillation scheme for surface defects identification of hot-rolled strip

ISIJ International Advance Publication
Reduction and Carburization Behaviors of Iron Oxide Composite with Iron Carbide and Free Carbon

ISIJ International Advance Publication

You can use this feature after you logged into the site.
Please click the button below.

Tetsu-to-Hagané Vol. 49 (1963), No. 2

Keyword Ranking

reduction caco3 in electric furnace

kinetics of decarburization of liquid iron with high concentration ofcarbon

kinetics of decarburization of liquid iron by ar-coz gasmixture

ahss

charpy impact chemistry

dual phase steel

foamy slag in eaf

kinetics of decarburization of liquid iron by

ladle furnace flicker

scm440

Tetsu-to-Hagané Vol. 49 (1963), No. 2

鉄鋼製錬の物理化学に想う

Share it with SNS

On the Activity of Carbon in Molten Iron

Share it with SNS

Activity of the Carbon and the Oxygen in Molten Iron-Nickel and Iron-Chromium Alloys

Share it with SNS

Behavior of Alloying Elements and Reacting Time in Consumable-Electrode Arc-Melting

Share it with SNS

Effect of Addition of Ti and B on Mn-Si, Mn-Si-Cr and Mn-Si-Mo Steels

Share it with SNS

Vacuum-Melted Bearing Steels

Share it with SNS

Effect of Heat Treatment on High-Temperature Strength of A286 Alloy

Share it with SNS

Effect of Manganese on High-Temperature Properties of N-155 Alloy

Share it with SNS

Current Topics on the Potential Uses of Uranium in Ferrous Metallurgy

Share it with SNS

Results of Research on Structure and Efficiency of Hot Stoves

Share it with SNS

Some Arguments in the Panel Discussion Meeting

Share it with SNS

抄録

Share it with SNS

鉄鋼ニューズ

Share it with SNS

特許記事

Share it with SNS

Article Access Ranking

In-situ Observation of Precipitation and Growth of MnS Inclusions during Solidification of a High Sulfur Steel

Measurement of Bubble Size Distribution and Generation Position of Bubbles Generated during Smelting Reduction of Iron Oxide-containing Slag

Injection of hydrogenous gases into the blast furnace tuyeres for reducing CO2 emissions: a review

Development of a Low-carbon Sintering Process Technology and Its Application to a Pilot-scale Sintering Testing

Precipitation Behavior of MnS from Molten Iron to Al2O3 during Solidification

Molecular dynamics simulation of viscosity of the CaO, MgO and Al2O3 melts

Effect of Al Content on Precipitation Behavior of AIN Inclusions during Unidirectional Solidification Process of Fe-(0.5-2.0)%Al-2.0%Mn Alloys

Quantitative Understanding of Solute Concentration Distribution by Microsegregation During Solidification

SOKD: A soft optimization knowledge distillation scheme for surface defects identification of hot-rolled strip

Reduction and Carburization Behaviors of Iron Oxide Composite with Iron Carbide and Free Carbon

Advanced Search

Injection of hydrogenous gases into the blast furnace tuyeres for reducing CO₂ emissions: a review

Precipitation Behavior of MnS from Molten Iron to Al₂O₃ during Solidification

Molecular dynamics simulation of viscosity of the CaO, MgO and Al₂O₃ melts