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Tetsu-to-Hagané
Vol. 60 (1974), No. 12

Tetsu-to-Hagané Vol. 60 (1974), No. 12

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

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Tetsu-to-Hagané Vol. 60 (1974), No. 12

調和ある綜合への信頼

高橋愛和

pp. 1583-1584

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調和ある綜合への信頼

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Effect of Intermediate Precipitation-Annealing on the Recrystallization Texture of an Aluminum-Killed Steel Sheet

Hideo ABE, Kineo TAKAGI

pp. 1585-1590

Abstract

The maximum enhancement of {111}‹110› plus {554}‹225› components in the recrystallization texture of a low-carbon aluminum-killed steel sheet is attained when the process is so controlled that gives the minimum nucleation rate of recrystallization in the final annealing.
Precipitation-annealing at an intermediate stage of cold rolling is found to be effective to give the minimum nucleation rate. It is concluded that the nucleation rate of recrystallization depends on the size and distribution of fine aluminum-nitride particles that precipitate preferentially on dislocations and the dislocation density of the matrix is an important factor to attain an appropriate state of precipitation for the inhibition of nucleation of recrystallized grains.

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Effect of Intermediate Precipitation-Annealing on the Recrystallization Texture of an Aluminum-Killed Steel Sheet

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Calculation of Thermal Stress in Cylindrical Steel during Cooling

Kazuo SAKAI

pp. 1591-1598

Abstract

The paper presented a calculation of thrmal stress in a cylindrical steel induced during cooling by introduction of strain-history into Hara's calculation method.
Calculation was based on elastic-plastic theory and total strain was calculated by non-linear integral equation through a successive integration. Plastic strain was calculated by total strain theory and stress-strain diagram.
A calculation was made for a cylindrical steel bar with 1500mm in diameter quenched in mist from 850°C, and the results are as follows.
(1) Tensile stresses (δ_t, δ_z, ) at surface of bar are the largest, when temperature difference between surface and core was the largest.
(2) Stresses (δ_t, δ_z) at starting point of transformation always show the maximum tensile values.
(3) Reverse of stresses (δ_r, δ_t, δ_z) takes place after completion of transformation of core.
(4) At final stage of cooling, core has tensile stresses (δ_r, δ_t, δ_z) and surface layer has compressive stresses (δ_t, δ_z) of characteristic pattern.

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Calculation of Thermal Stress in Cylindrical Steel during Cooling

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Effect of Texture on the Toughness of Pure Iron

Fukunaga TERASAKI, Teruo KANEKO

pp. 1599-1612

Abstract

To clarify the effect of texture on the toughness of irons and steels, mechanical behaviors of pure irons having a strong {100}‹011› texture component were investigated.
It is revealed that the texture has a notable influence on the Charpy impact properties; the stronger the {100} component parallel to the fracture surface, the higher the impact transition temperature. The ratio of unit crack path l_c to grain size l_a in the textured sample is larger than the ratio of about 2 obtained in a previous paper. It can be concluded that the unit crack path is more reasonable than the grain size as a characteristic of the structure affecting on the toughness of irons. The difference of the fractographic appearance of unit crack path between the textured sample and the random one is discussed.
The elongation and the reduction in width show the planar anisotropy due to the preferred orientations, while the strength is not influenced by the texture under the experimental conditions of this study.

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Effect of Texture on the Toughness of Pure Iron

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Delayed Failure Crack and Fracture Toughness of 18 Ni Maraging Steel with Aging Structure at Low Temperature

Yoshikuni KAWABE, Kozo NAKAZAWA, Masao KANAO, Seiichi MUNEKI

pp. 1613-1623

Abstract

In the previous paper, the authors reported about the peculiar phenomena with regard to an 18 Ni maraging steel with low temperature aged structure, that K_IC was strongly dependent upon the prior γ grain size and the delayed failure crack was observed in front of the fatigue precrack. This study has been made in order to investigate these phenomena in more details and to discuss the mechanism by which K_IC is increased.
It is made clear that an increment in K_IC is completely associated with slow crack growth of delayed failure which precedes the unstable fracture. However, its increment is not an increment in true K_IC as a material constant but an increment in apparent K_IC.
This may be due to the blunting at crack front caused by the microbranching of the delayed failure crack, the degree of which also depends upon the prior γ grain size.
Tensile ductility also markedly decreases under the same condition in which an apparent K_IC increases. This is attributed to the occurence of the delayed failure crack at the specimen surface adjacent to or in the necking region. Thus, the 18Ni margaing steel with low temperature aged structure shows the complicated behavior on toughness and ductility because of the high sensitivity to delayed failure.

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Delayed Failure Crack and Fracture Toughness of 18 Ni Maraging Steel with Aging Structure at Low Temperature

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Static Strain Aging of Eutectoid Carbon Steel Wire

Yoshiro YAMADA

pp. 1624-1638

Abstract

The aging process of patented, rapidly cooled, and subsequently slowly cold drawn eutectoid carbon steels has been investigated by the methods of internal friction, electrical resistivity, and room temperature tensile test.
The results obtained are summarized as follows.
The strain aging occurs in three stages.
The first stage aging occurs below about 150°C. Supersaturated carbon and nitrogen in α iron lock dislocations. In fine lamellar pearlitic steel, dissolved carbon content in a iron is small after patenting and drawing, and there is no significant contribution to the first stage by carbon. Large amounts of nitrogen can, on the contrary, dissolve in lamellar pearlitic ferrite and cause the increase of tensile strength by aging at this stage.
The second stage appears only in heavily prestrained specimens at temperatures from about 150°C to 230°C The dissolution of some portion of lamellar cementite and the dislocation locking or pinning by carbon supplied therefrom take place. An appreciable increase of tensile strength results. The activation energy of 28 kcal/mol was obtained experimentally. This value is believed to be the sum of the activation energy of carbon diffusion in ferrite and the binding energy of cementite in ferrite.
The third stage corresponds to overaging from the view point of tensile strength.

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Static Strain Aging of Eutectoid Carbon Steel Wire

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Estimation of Jominy Hardenability Curve by Master Cooling Curve

Yoshio TOKIHIRO, Imao TAMURA

pp. 1639-1645

Abstract

Hardness values of a steel can be estimated from the CCT diagram if the cooling curve of the specimen is known. By the use of the master cooling curve previously obtained by the present anthors, it was found that the cooling curve at any position from the quenched end of a Jominy specimen and hence the Jominy hardenability curve could be estimated accurately. These estimated curves of several steels well coincided with the measured results. Several estimation methods proposed by other researchers were compared with the one from the master cooling curve.

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Estimation of Jominy Hardenability Curve by Master Cooling Curve

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The Relation between the Corrosion behaviour of Steels and the Characteristics of Various Ocean Environment

Haruo SHIMADA, Kazuhiro MIIDA, Teruo YOKOOJI

pp. 1646-1654

Abstract

The relation between the corrosion behaviour of steels in various oceanic environments and characteristics of sea water was studied.
The results are as follows:
(1) In the unpolluted sea water, the corrosion rate (2 meters below the surface and on the sea bed, 30, 60, 90, meters deep) increased with increase of the oxygen content. On the other hand, in the polluted sea water, the corrosion was accelerated with increases of microorganisms and the temperature of sea water. In addition, local corrosion of the steels tended to be more pronounced than in the unpolluted sea water.
(2) The corrosion resistances of low-alloy steels containing Cu, Cr, Si, and Mo were extremly superior to that of carbon steel. This is considered to be due to the coexistence of Si and Cr in steels, which is effective in suppressing detrimental effect of sulphate reducing bacteria, and due to the coexistemce of Si, Cr, and Cu in the adherent product effective in decreasing the rapid growth of the rust crystals in any ocean environments.

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The Relation between the Corrosion behaviour of Steels and the Characteristics of Various Ocean Environment

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Oxidation of Superalloys in Impure Helium

Mizuo SAIKAKIBARA, Ikuo BANNO, Shozo SEKINO

pp. 1655-1660

Abstract

An investigation was made to clarify the corrosion of several superalloys in impure helium.
The corrosion in helium was more severe than in air. This corrosion was due to the insufficiency in supply of oxidizing species to form a continuous protective scale. For this reason, the severe corrosion occured with the formation of Cr-denuded zone and with internal oxidation.
This oxidation could be reduced by the surface treatment, such as calorizing and pre-oxidizing in air to form a protective film on the surface.

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Oxidation of Superalloys in Impure Helium

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On the ASEA-SKF Process

Takesaburo NISHIOKA, Kanji EMOTO

pp. 1661-1681

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pp. 1682-1697

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Accelerated Oxidation of Heat Resisting Steels Caused by Lead Oxide

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pp. 1698-1705

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Development of Hot Strip Mill in Japan

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Internal Friction of Iron, Steel and Other Metals

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pp. 1706-1713

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Internal Friction of Iron, Steel and Other Metals

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pp. 1714-1721

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Tetsu-to-Hagané Vol. 60 (1974), No. 12

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kinetics of decarburization of liquid iron with high concentration ofcarbon

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Tetsu-to-Hagané Vol. 60 (1974), No. 12

調和ある綜合への信頼

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Effect of Intermediate Precipitation-Annealing on the Recrystallization Texture of an Aluminum-Killed Steel Sheet

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Calculation of Thermal Stress in Cylindrical Steel during Cooling

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Effect of Texture on the Toughness of Pure Iron

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Delayed Failure Crack and Fracture Toughness of 18 Ni Maraging Steel with Aging Structure at Low Temperature

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Static Strain Aging of Eutectoid Carbon Steel Wire

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Estimation of Jominy Hardenability Curve by Master Cooling Curve

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The Relation between the Corrosion behaviour of Steels and the Characteristics of Various Ocean Environment

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Oxidation of Superalloys in Impure Helium

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Accelerated Oxidation of Heat Resisting Steels Caused by Lead Oxide

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Development of Hot Strip Mill in Japan

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

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