| 1.0 |
¤£ù׿û½u¤Î¦Xª÷½u
Stainless Steel & Alloy Wire |
1 - 30
|
| 1.1 |
¤£ù׿ûªº©w¸q
Definition of Stainless Steel |
3 |
| 1.2 |
¥Í²£¤èªk¤Î¥Í²£¬yµ{
Production Method & Production Flow Chart |
4 - 5 |
| 1.3 |
¤£ù׿û¤§¯S½è
Features of Stainless Steel |
6 |
| 1.4 |
ª÷ÄÝ»G»k
Corrosion of Metal |
7 - 12 |
| |
»G»k
Corrosion |
7 |
| |
»G»k¤§©w¸q
Definition of Corrosion |
7 |
| |
»G»kªººØÃþ
Different kinds of Corrosion |
7 |
| |
ª÷ÄÝ»G»kªº¡§ªk©Ô§Ì¡¨©w«ß
Law of "Faraday" |
7 |
| |
»G»k¹q¦À
Corrosion Cell |
7 |
| |
Àô¹Ò¹q¦À
Environment Cell |
8 |
| |
»G»k¦ì¸m
Type of Corrosion |
8 |
| |
¦ÛµMÀô¹Ò¡B¤ô¡B®ü¤ô¡B¤gÄ[¡B²V¾®¤g¹ïª÷Äݪº¼vÅT
How Natural Environment, water, sea water, soil and concret
affect metal ? |
9 |
| |
ª÷Äݦb²H¤ô/®ü¤ô/¤gÄ[ªº»G»k³t²v
The Rate of Corrosion of Metal made by Fresh Water, Sea
Water and Soil |
10 |
| |
ª÷Äݪº®zÂI¬O»G»kªº¨Ó·½
The Weak Point of Metal is the Starting Point of Corrosion
|
10 |
| |
·Å«×¡BÁ{¬É¬Û¹ï·Å«×
How Temperature affects Corrosion |
10 |
| |
µ²´¹¯Ê³´
Crystal Defects |
10 |
| |
§N¥[¤u
Cold Working |
11 |
| |
´¹²Éµ²ºc¤Î´¹¶¡»G»k
Grain Structure & Inter-granular Corrosion |
11 |
| |
´¹²É§Îª¬
Grain Shape |
11 |
| |
¸Ñ¨M¤èªk
Solution of Corrosion Resistance |
12 |
| |
ª÷Äݯ«×
Purity of Metal |
12 |
| |
ª÷ÄݲK¥[ª«
Additive on Metal |
12 |
| |
¼ö³B²z
Heat Treatment |
12 |
| 1.5 |
ùתºµo¥Í»P¤£ù׿û¤ÎÜg¹ï¤Æ¾Çª««~ªº§Ü»G»k«ü¼Ð
Rusting, Corrosion Resistance of Stainless Steel
& Titanium against Chemicals |
13 - 15 |
| |
ùתºµo¥Í
Rusting |
13 |
| |
¤£ù׿û¤ÎÜg¹ï¤Æ¾Çª««~ªº§Ü»G»k«ü¼Ð
Corrosion resistance of Stainless Steel & Titanium
against chemicals |
13-15 |
| 1.6 |
¤£ù׿û¤§¤ÀÃþ¡A@»G»k©Ê¤Î@¼ö©Ê
Classification, Corrosion Resistant & Heat Resistant
of Stainless Steel |
16 - 17 |
| |
ÅK»Ì¨t¤£ù׿û¤ù
Chrome Stainless Steel |
16 |
| |
°¨¤óÅ餣ù׿û
Martensite Stainless |
16 |
| |
§CºÒ°¨¤óÅ餣ù׿û
Low Carbon Martensite Stainless |
16 |
| |
§tÅKÅ餣ù׿û
Ferrite Stainless Steel |
16 |
| |
Âì»Ì¨t¤£ù׿û
Nickel Chrome Stainless Steel |
17 |
| |
ÄÀ¥Xµw¤Æ¤£ù׿û
Precipitation Hardening Stainless Steel |
17 |
| |
ÅK¿ø¾T¤£ù׿û
Fe / Mn / Al Stainless Steel |
17 |
| 1.7 |
¤HÅé¹ïÂ쪺±Ó·P
Nickel Allergy |
18 - 20 |
| |
¤Þµo±Ó·Pªº¾÷¨î
Mechanism of Nickel Allergy |
18 |
| |
¬ªÂì¤Îª÷ÄÝ»G»kªºÃö³s
Nickel Emission and Metal Corrosion |
19 - 20 |
| 1.8 |
¤£ù׿ûªººÏ©Ê
Magnetic Property & Stainless Steel |
21 |
| |
§ÜºÏÅé/¶¶ºÏÅé/ÅKºÏÅé
Diamagnetism, Paramagnetic & Ferromagnetism |
21 |
| |
ºÏ©Êº¯³z
Permeability |
21 |
| 1.9 |
¦p¦ó¿ï¾Ü¤£ù׿û§÷
How to select Stainless Steel |
22 - 23 |
| 1.10 |
³B²z¤Îªí±ª¬ªp
Finish & Surface |
24 |
| 1.11 |
¦UºØ¤£ù׿û½u¦b¤£¦P³B²z©Ô¤O¤ñ¸ûªí
Tensile Strength of various kinds of Stainless Steel Wire
under Different Finish |
25 |
| 1.12 |
µw¤Æ¤Î¼ö³B²z
Heat Treatment Hardening |
26 - 30 |
| |
¥¿±`¤Æ Normalizing |
26 |
| |
°h¤õ Annealing |
26 |
| |
§¹¥þ°h¤õ Full Annealing |
26 |
| |
ÂX´²°h¤õ Diffusion Annealing |
27 |
| |
§C·Å°h¤õ Low Temperature Annealing |
27 |
| |
²y¤Æ°h¤õ Spheroidizing Annealing |
27 |
| |
¥ú½÷°h¤õ Bright Annealing |
27 |
| |
¨ä¥L°h¤õ¤èªk Other Annealing
Method |
27 |
| |
²f¤õ Quenching |
27 |
| |
®É¶¡²f¤õ Time Quenching |
28 |
| |
¶ø¤óÅé²f¤õ Austempering |
28 |
| |
°¨¤óÅé²f¤õ Marquenching
|
28 |
| |
²f¤õ¾¯ Quenching Media |
28 |
| |
¦UºØ²f¤õ¾¯¤§§N«o³t«×
The rate of Cooling & Quenching Media |
28 |
| |
¦^¤õ Tempering |
28 |
| |
ªí±µw¤Æ Surface (case ) Hardening |
29 |
| |
º¯ºÒ¤Æ Carbonizing |
29 |
| |
´á¤Æªk Nitriding |
30 |
| |
µ¥Â÷¤l´á¤Æªk Plasma - nitriding |
30 |
| |
®ðÅ麯ºÒ¤Æ Gas Caburizing |
30 |
| |
ÆQ²G¤Æ Liquid Salt Bath |
30 |
| 2.0 |
¼u®¤£ù׿û½u
Stainless Spring Wire |
31 - 48 |
| 2.1 |
±`¥Îªº¼u®¤£ù׿û½u-½s¸¹¡A¯S©Ê¡Aªí±³B²z¤Î¤Æ¾Ç¦¨¥÷
Commonly used Stainless Spring Wire |
32 - 33 |
| 2.2 |
¼u®¤£ù׿û½u - ½u®|¤Î©Ô¤O¦Cªí
Stainless Spring Steel Wire - Wire Diameter & Tensile
Strength |
34 - 35 |
| 2.3 |
¼u®¤£ù׿û½u¤§¼u©Ê©Ê¯à
Spring Property of Stainless Spring Wire |
36 |
| |
§N©Ôª¬ºA½u§÷
Wire as drawn |
36 |
| |
¦^¤õª¬ºA½u§÷
Tempered Stainless Wire |
36 |
| 2.4 |
¼u®¤£ù׿û½uªºª«²z©Ê¯à¤Î¦b¦^¤õ«áªº¾÷±ñ©Ê¯àÅܤÆ
Physical Properties & Change of Mechanical Properties
of Stainless Spring Steel Wire after Tempering |
37 - 38 |
| |
¦^¤õ«á©Ô¤O¤Î©Ô¤O©}ªA±j«×ÅܤƹϪí
Change of Tensile Strength and Tensile Yield Strength
after Tempering on graph |
37 |
| |
¦^¤õ«á©Ô¤O¤Î©Ô¤O©}ªA±j«×Åܤƪí
Change of Tensile Strength and Tensile Yield Strength
after Tempering |
37 |
| |
¦^¤õ«á·¨¤ó¼u©Ê¼Ò¼Æ¤Î°Å¤Á¼Ò¼Æªí
Change of Tensile Strength and Tensile Yield Strength
after Tempering |
37 |
| |
¦^¤õ«á§á¤O±j«×¤Î§á¤O©}ªA±j«×ªí
Change of Torsional Strength and Torsional Yield Strength
after Tempering |
38 |
| |
¦UºØ¼u®½u§÷(¤£ù׿û/µ^½u/ÁC»É½u)ª«²z©Ê¯à¤ñ¸ûªí
Physical Proerties of different kinds of Spring Wires
|
38 |
| 2.5 |
´¼¯à¼u®½u
Herculeana |
39 - 40 |
| 2.6 |
¤O±j¤£ù׿û½u§÷
Mighty Stainless |
41 |
| 2.7 |
¯uª½½u
Straightened Wire |
42 |
| 2.8 |
µLºÏ¤Î°ª±j«×¤£ù׿û½u
Non-magnetic & High Strength Stainless Steel Wire
|
43 |
| |
¤Æ¾Ç¦¨¥÷
Chemical Composition |
43 |
| |
©Ô¤O¤Î³zºÏ²v
Tensile Strength & Permeability |
43 |
| |
©Ê¯à
Properties |
43 |
| 2.9 |
§Ü¼ö¤£ù׿û½u
Heat Resisting Stainless Steel Wire |
44 - 46 |
| |
¤£¦PºØÃþ¤§¤ñ¸ûªí
Different type of Wire |
44 - 45 |
| |
§Ü¼ö¤£ù׿û½u¤Æ¾Ç¦¨¥÷
Chemical Composition of Heat - Resistance Stainless Steel
Wire |
46 |
| 2.10 |
²f¤õµw½u
Quench Hardening Wire |
47 |
| |
ºØÃþ¤Î©Ê¯àType and Characteristics |
47 |
| |
²f¤õµw½uªº²f¤õ¡BÀ³¤O®ø°£¡B¦^¤õ °h¤õ¤Îµw«×(ºû¤ó/¥¬¤ó/¬¥¤ó)
Tempering, Stress Relieve, Annealing and Hardness of Quench
Hardening Wire |
47 |
| 2.11 |
°ª©Ô¤O¹q½u/¹qÆl¾É½u
Lashing Wire |
48 |
| 3.0 |
¤£ù׿û³n½u
Stainless Steel Soft Wire |
49-54 |
| 3.1 |
¤£ù׿û´½u
Stainless Steel Weaving Wire |
51 - 52 |
| |
ºØÃþ(¶ø¤óÅé/¦Xª÷)
Type (Austenite / Alloy) |
51 |
| |
¤Æ¾Ç¦¨¥÷
Chemical Composition |
51 |
| |
¾÷±ñ©Ê¯à
Mechanical Property |
52 |
| 3.2 |
¦A¥[¤u¥Î¦^¤õ¥þ³n¤£ù׿û½u
Stainless Steel Soft Annealed Wire for Re-drawing purpose,
etc. |
53 |
| |
¯S©Ê
Charateristics |
53 |
| |
¤Æ¾Ç¦¨¥÷
Chemical Composition |
53 |
| |
¾÷±ñ©Ê¯à
Mechanical Property |
53 |
| 4.0 |
©ö¨®(§Ö«d)¤£ù׿û½u/ªK/´Î
Free Cutting Stainless Steel Wire / Roy /Bar |
55 - 60 |
| 4.1 |
©ö¨®(§Ö«d)¤£ù׿û
Free Cutting Stainless Steel |
57 - 58 |
| 4.2 |
©ö¨®(§Ö«d)¤£ù׿û©Ô¤Oªí
Tensile Strength of Free Cutting Wires |
59 |
| 4.3 |
ªK/´ÎµLªä¿i¤½®tªí(£g)
Rod/Bar Centreless Grind Tolerance |
60 |
| 4.4 |
©ö¨®¤£ù׿û¤Î©ö¨®¿û¤§¤£¦P§`¦T¤Îµw«×¤ñ¸û
Hardness of Different Types & Size of Free Cutting
Steel |
60 |
| 5.0 |
§N¨R(¥´ÀY)¤£ù׿û½u
Cold Heading Quality Stainless Steel Wire |
61 - 66 |
| 5.1 |
§N¨R(¥´ÀY)¤£ù׿û½u
Cold Heading Quality Stainless Steel Wire-Property,Type
and Chemical Composition |
63 -64 |
| |
¯S©Ê
Charateristics |
63 |
| |
§Ö«d¿ûºØÃþ¤Î¤Æ¾Ç¦¨¥÷
General Use Free-Cutting Stainless Steel & Chemical
Composition |
64 |
| 5.2 |
»s§@¤£¦PÁ³µ·¤§§÷½è
Screws & Bolt Shapes and recommended materials |
65 |
| 5.3 |
§N¨RÀY½u¤§¾÷±ñ©Ê¯à
Mechanical properties of Cold Heading Wire |
66 |
| 6.0 |
«ó½u¡B¥b¶ê½u¤Î²§§Î½u
Flat Wire, Half Round Wire & Profile Wire |
67 - 72 |
| |
¥[¤u¤èªk
Manufacturing Method |
69 |
| |
À³¥Î§÷®Æ
Material used |
69 |
| |
¯SÂI
Characteristic |
69 |
| |
¤£ù׿û«ó½u¤Î¥b¶ê½u±`¥Î§÷®Æ
Stainless Steel Flat & Half Round Wire |
70 |
| |
«ó½u¤½®t
Flat Wire Tolerance |
71 |
| |
¤è½u¤½®t
Square Wire Tolerance |
71 |
| 7.0 |
¤p«¬¤£ù׿ûÆl
Miniature Stainless Wire Rope |
73 - 80 |
| 7.1 |
¤p«¬¤£ù׿ûÆl
Miniature Rope |
75 -78 |
| |
µ²ºc
Structure |
|
| |
°ò¥»§÷®Æ
Material use |
|
| |
±`¥Î¤£ù׿ûÆl
General use Stainless Wire Rope |
|
| |
¼Ð·Çª½®|¤Î©Ô¤Oªí
Standard Diameter & Tensile Strength |
|
| 7.2 |
¤£ù׿ûÆl½u§÷ªº¾÷±ñ¤Îª«²z©Ê¯à
Mechanical & Physical Properties of Stainless Wire
Rope |
79 |
| 7.3 |
qÁʻݪ¾
Ordering |
80 |
| 8.0 |
¦Xª÷½u
Alloy Wire |
81 - 92 |
| 8.1 |
Üg¤ÎÜg¦Xª÷½u/Üg²k½u
Titanium, Titanium Alloy & Titanium Welding Wire |
83 |
| 8.2 |
°ªÂì¦Xª÷¤Î²kªK
Nickel Base High Alloy Wires & Welding Wires |
84 - 85 |
| 8.3 |
²k½u/²kªK/²k±ø
Welding Wires & Rod, Covered Electrodes & Flux
Core Wire |
86 - 90 |
| 8.4 |
¤õªá¹q»k¤Á³Î¥Î½u
EDM Wire Cutting Wire |
91 |
| 8.5 |
§Îª¬°O¾Ð¦Xª÷¤Î°ª¼u©Ê¦Xª÷
Shape Memory Alloy & Super Elastic Alloy |
92 |
| |
|
|
| |
¼W¥Z Supplement
|
|
| 9.0 |
§N©Ô°ªºÒ¿û½u
Hard Drawn High Carbon Steel Wire
(to JIS G3521, ISO-8458-1&2) |
93 - 94 |
| 9.1 |
¤Æ¾Ç¦¨¥÷¤ÀªRªí
Chemical Analysis of Wire Rod |
93 |
| 9.2 |
½u®|¡B¤½®t¤Î¾÷±ñ©Ê¯à(¤é¥»¤u·~¼Ð·ÇG3521)
Wire Diameter, Tolerance & Mechanical Properties (JIS
G 3521) |
94 |
| 10.0 |
§N¨R¤Î§NÁë¥ÎºÒ¿û½uªK
Cold Forging (to JIS G3507) |
95 - 96 |
| 10.1 |
¯Å§O¡M¥N¸¹¤Î¤Æ¾Ç¦¨¥÷
Classification, Symbol of grade and Chemical Composition
|
95 |
| 10.2 |
ª½®|¤½®t¡M°¾¶ê«×¤Î²æºÒ¼hªº¥§¡²`«×
Diameter Tolerances, Ovality and Average Decarburized
Layer Depth |
96 |
| 11.0 |
°ªºÒ¿û½uªK
High Carbon Steel Rod |
97 |
| 12.0 |
µ^½u(¤é¥»¼Ð·ÇG3522)
Piano Wire (JIS G3522) |
98 - 100 |
| 12.1 |
¯Å§O¡M¥N¸¹¡M§á¦±¯S©Ê¤Îª½®|
Classes, symbols, twisting characteristic and applied
wire diameters |
98 |
| 12.2 |
ª½®|¡M¤½®t¤Î©Ô¤O±j«×
Diameter, Tolerance and Tensile Strength |
99 |
| 12.3 |
µõ¯¾¤§®e³\²`«×¤Î²æºÒ¼h
Permissible depth of flaw and decarburized layer |
100 |
| 13.0
|
©ö¨®ºÒ¿û
(to JIS G4804)
Free Cutting Steel Wire (to JIS G4804) |
101 - 102 |
| 13.1 |
¤Æ¾Ç¦¨¥÷
Chemical Composition |
101 |
| 13.2 |
¶ê¿ûªK¡M¤è¿ûªK¤Î¤»¨¤¿ûªK¤§§Îª¬¤Î¤Ø¤o¤§¤½®t
Tolerances on Shape and Dimensions for Round Steel Bar,Square
Steel Bar, Hexagonal Steel Bar |
102 |
| 14.0 |
§N©Ô¿ûªK§÷
Cod Drawn Steel Bar |
103 - 105 |
| 14.1 |
ªK§÷¤§¬ü¤u¼Ð·Ç¡M¤é¤u¼Ð·Ç¡M¥Î³~¤Î¤Æ¾Ç¦¨¥÷
AISI, JIS, End Usage and Chemical Composition of Cold
Drawn Carbon Steel Shafting Bar |
103 - 105 |
| 14.2 |
§N©Ô¿ûªK«¶qªí
Cold Drawn Steel Bar Weight Table |
105 |
| 15.0 |
ÅK½u(§CºÒ¿û½u)¤é¤u¼Ð·Ç
(to JIS G3532)
Ungalvanized Steel Wire (to JIS G3532)
|
106 - 108 |
| 15.1 |
¥ú½u§CºÒ¿û½u)¡M¤õ½u(°h¤õ§CºÒ¿û½u)¡M¹]¤ô½u(Áá¾N§CºÒ¿û½u)¤Î»s³y°v¥Î§CºÒ¿û½u¤§¥N¸¹¡B¤½®t¤Î³Æµù
The JIS standard, Tolerance of Hard Drawn Wire, Annealed
Wire & Galvanized Steel Wire |
106 |
| 15.2 |
¾÷±ñ©Ê¯à
Mechanical Properties |
107 |
| 15.3 |
¾N¥]¼h¤§«¶q¡M»É²¸»ÄÆQ¸ÕÅ礧»Ä¬~¦¸¼Æ¤Î´ú¸Õ¥Î¨÷µ©ª½®|
Weight of Zinc-Coating, Number of Dippings in Cupric Sulphate
Test and Diameters of Mandrel Used for Coiling Test |
108 |
| 16.0
|
¾É¹q¥Î½s´±a(°A޽u)
Tin - Coated Copper Braided Flat Wire ( TBC Wire ) |
109 |
| 16.1 |
²Õ´¤èªk
Structure |
109 |
| 17.0 |
¹qªý½u¤Î±a
Heat Resistance Wire |
110 |
| 17.1 |
»Ì¨t¹qªý½u
Nickel / Chromium Alloy Electric Resistance Wire |
110 |
| |
¤é¤u¼Ð·Ç ( JIS )
NCH 1
NCH 2
FCH 1
FCH 2 |
|
| 17.2 |
Âì»É¤ÎÂì¿ø¨t¹qªý½u
Nickel Copper & Maganin Alloy Electric Resistance
Wires |
110 |
| 18.0 |
¯Âª÷¾Z½u
Gold Soldering Wire |
111 - 114 |
| 18.1 |
¯S¦â
Special Features |
111 |
| 18.2 |
ºØÃþ¤Î±ø¥ó
Typical Properties of Gold Wires |
111 |
| 18.3 |
ª÷½uªº©Ê¯à
Typical Properties of Gold Wires |
112 |
| 18.4 |
¨C±øºØÃþ25£gm (1.0 mil)½uªºt²ü¶q¤Î©µªø²vªºÃö«Y
Breaking Load vs Elongation Curves of each Type 25£gm (1.0
mil) wire |
113 |
| 18.5 |
±²¶b
Spools |
113 |
| 18.6 |
±²¶bª½®|
Spool Dimension |
113 |
| 18.7 |
¦¬½u
Winding |
114 |
| 18.8 |
¬d¸ß¤Î©wÁÊ
Inquiry and Ordering |
114 |
| 19.0 |
@¼öÁá²k¹q¤l¹s¥ó¥Î»É½u(SCA)
Copper Soldering Wire (SCA) |
115 |
| 19.1 |
½è¶q Quality |
115 |
| 19.2 |
@¼ö´ú¸Õ
Heat-resistance Test |
115 |
| 19.3 |
ª«²z©Ê¯à
Physical Properties |
115 |
| 20.0 |
·eº£ºÏ¤O½u(º£¥Ö½u)
Enamal Wire |
116 - 118 |
| 20.1 |
³ü¯ë¥Î³~ªºº£¥Ö½u
General Usage
|
116 |
| 20.2 |
@¼öº£¥Ö(ºÏ¤O)½u
Heat-resistant Magnet Wires |
117 |
| 20.3 |
¦Û°ÊÖߦXº£¥Ö½u(¤é¤u¼Ð·ÇJIS C 3212) (UL¼Ð·Ç
E7909S)
Self-bonding Magnet Wires (to JIS C 3212) (UL E7909S)
|
118 |
| 21.0
|
¥[¼ö¾¹¥Î¤§½u§÷
Heat Resistance Wire |
119 |
| 22.0
|
«DÅK¦Xª÷½u
Non - Ferrous Alloy Wire |
120 |