(¼W¥Z:°ªÂì¦Xª÷¡BºÏ©Êª÷ÄÝ¡BÂù¼hª÷ÄÝ¡BÜg¡Bµo±ø¤ù¡B°ªºÒ¿û¤ù¡B¹qÁáª÷Äݸi¤ù¡B»È«G±¹qÁá¿û¤ù¡B¥´¤Õ¿û¤ù¡B¹q¾¹¥Îªºª¿ [Öº]
¿û¤ù¡BÅK»Ì¹WºÏ¦Xª÷¡Bµ}¤gºÏ¦Xª÷¡B×ýÅK¸NºÏ¦X¡B¯»ºÏ¡B³n¯»ºÏ¡BÖº§CºÒ¿û¤ù(Öº¿û¤ù) ¡BÂìÅK¦Xª÷¡Bµ´½t³³²¡¤Î°ª·s¬ì§ÞµL¾÷§÷®Æ)
(Supplement: High Nickel Alloy, Permalloy, Bi-metal, Titanium,
Power Spring Strip, High Carbon Steel Strip, Plated Metal
Strip, Electrogalvanized (Silver top) steel strip/ sheet,
Perforated Metal, Silicon Steel Sheet for Electrical Use,
Iron Chromium Cobalt Magnetic Alloys, Rare Earth Alloys, Neodymium
(Nd) - Iron (Fe) - Boron (B) Magnetic Alloys, Ferrites, Soft
Ferrites, Silicon Low Carbon Steel, Ferro - Nickel Alloy,
Porcelain for insulators & Inorganic Matericals)
| 1.0 |
¤£ù׿û¸i¤ù/ ±i¤ù/ªO§÷
Stainless Steel & Alloy Strip, Sheet & Plate |
1 |
| 1.1 |
¤£ù׿ûªº©w¸q
Definition of Stainless Steel |
1 |
| 1.1.2 |
¤ñ¸û¤¤jÃþ¤£ù׿ûªº²§¦P
Comparison of different type of Stainless Steel |
2 |
| 1.1.3 |
¤£ù׿ûªº¦n³B
Advantage of Stainless Steel |
3 |
| 1.1.4 |
±j«×¡B¦ù©µ¯à¤O¤Î¥[¤u¯à¤O
Strength, Ductility and formability |
4 |
| 1.1.5 |
¤£ù׿û»P¨ä¥Lª÷Äݪº¤ñ«¡B¦ù©µ©Ê¯à¡B¾É¼ö©Ê¯à¡B¼ö¿± µÈ©Ê¯à¤Î¹qªýªº¤ñ¸û
Comparison specific gravity electricity, thermal conductivity,
Thermal expansion and electrical resistance of stainless
steel
and other metals |
5 |
| 1.1.6 |
¤ñ«
Specific Gravity |
6 |
| 1.17 |
¦ù©µ«×
Elasticity |
6 |
| 1.1.8 |
¹qªý
electrical resistance |
7 |
| 1.1.9 |
¼ö¶Ç¾É
Thermal conductivity |
|
| 1.1.10 |
¼ö¿±²é
Thermal Expansion |
8 |
| 1.1.11 |
¤£ù׿ûºÒ¿û¾T¦Xª÷¤Î»É¦Xª÷ªº¾÷±ñ©Ê¯à¤ñ¸û
Comparison of mechanical propertities of selected stainless
Steels, carbon steels and aluminum & bronze alloys
|
9 |
| 1.1.12 |
¤£ù׿ûùتº¦X¦¨ª÷ÄݤβK¥[ª÷Äݹ藍ù׿û§Ü»G»k©Ê¯à¤Î
¨ä¥L©Ê¯àªº¼vÅT
Alloy & Additive of Stainless Steel and its corrosion
& other properties |
10 |
| 1.1.13 |
±q304(18/8)¤£ù׿ûºtÅÜ¥X¨Óªº¦UºØ¤£ù׿û
Various Type of Stainless Steel Evolution from 304(18/8)
|
11 |
| 1.1.14 |
AISI-304 ¤£ù׿ûªº¬ï³z»G»k²v (±K«× : 7.87§J/¥ß¤è²@¦Ì¡A»G»k²v:
¨C¦~ 0.0762(3/1000¦T)
Conversion of Corrosion penentration rates for AISI-304
Stainless steel (density 7.87 g/cm3) and a corrosion rate
of 0.0762mm (3/1000 inches)/yr. |
12 |
| 1.1.15 |
¤£ù׿û¤u·~¼Ð·Ç
Industrial standard of stainless steel |
13 |
| 1.1.16 |
¼Ú¬w¼Ð·Ç(EN10088-2:1995)¤£ù׿û¤ù(«p«×20MM¥H¤U)¤Î(«p«× 20-200M)ªººØÃþ¡A¥[¤u¤èªk¡Aªí±ª¬ºA¤Î¯SÂI
Types processing method, surface finished & features
of stainless
strip, sheet(Thickness under 20mm) & Plate (Thickness
20-200mm)
to EN1088-2 : 1995 |
18 - 20
|
| 1.1.17 |
¤£ù׿û¤§¯S½è
Features of Stainless Steel |
22 |
| 1.1.18 |
µo©ú¤£ù׿ûªº§Mª÷¾Ç®a
Metallurgists of Stainless Steel |
23 |
| 1.1.19 |
¸ê²`ªº¤£ù׿û³y¼t
Pioneer Stainless Steel makers |
24 |
| 1.1.20 |
°ª»Ì¤£ù׿û
High-chromium Stainless Steel W442 |
25 |
| 1.2 |
¥Í²£¤èªk¤Î¬yµ{
Production Method |
26 |
| 1.2.1 |
¥Í²£¤èªk
Production Method |
26 |
| 1.3 |
¤£ù׿û¤ù¥Í²£¬yµ{
Manufacturing flow chart of Stainless Steel Strip/ Sheet/
Plate |
27 |
| 1.4 |
¤£ù׿û¥Dn»s³y¹Lµ{²LÄÀ
Explanations of Stainless Steel Manufacturing Process
|
28 |
| 1.5 |
¨ãÅé¥Í²£¹Ï¸Ñ
Manufacturing Process in Illustration |
30 - 34 |
| 1.5.1 |
·»¤Æ¤Îű³y¬yµ{
Melting and Casting flow-chart |
30 |
| 1.5.2 |
¿ûËò³B²z¤Î°Åµô¬yµ{
Slabbing and Slab Conditioning flow-chart |
31 |
| 1.5.3 |
¼öªî¬yµ{
Hot Rolled flow-chart |
32 |
| 1.5.4 |
§Nªî¬yµ{
Cold Rolled flow-chart |
33 |
| 1.5.5 |
°Å¤Á¤À±ø¤Î¥]¸Ë
Shearing & Slittering |
34 |
| 1.6 |
ÀˬdÃÒ©ú®Ñ
Mill's Inspection Certificate |
35 - 36 |
| 1.7 |
ª÷ÄÝ»G»k
Corrosion of Metal |
38 - 43 |
| |
»G»k©w¸q
Definition of Corrosion |
38 |
| |
»G»kºØÃþ
Different Kinds of Corrosion |
38 |
| |
ª÷ÄÝ»G»kªº¹B§@¦¨(ªk©Ô§Ì)©w«ß
Law of " Faraday" |
38 |
| |
»G»k¹q¦À
Corrosion Cell |
38 |
| |
Àô¹Ò¹q¦À
Environmental Cell |
39 |
| |
»G»k¦ì¸m
Type of Corrosion |
39 |
| |
¦ÛµMÀô¹Ò¡B¤ô¡B®ü¤ô¡B¤gÄ[¡B²V¾®¤g¹ïª÷Äݪº¼vÅT
How Natural Environment, water, sea water, soil and concret
affect metal ? |
39 - 41 |
| |
ª÷Äݦb²H¤ô/®ü¤ô/¤gÄ[ªº»G»k³t²v
The Rate of Corrosion of Metal made by Fresh Water, Sea
Water and Soil |
41 |
| |
pºâª÷ÄÝ»G»kªº¤èªk
The Method of Calculation of Corrosion |
41 |
| |
ª÷Äݪº®zÂI¬O»G»kªº¨Ó·½
The Weak Point of Metal is the Starting Point of Corrosion
|
41 - 43 |
| |
·Å«×¡BÁ{¬É¬Û¹ï·Å«×
How Temperature affects Corrosion |
41 |
| |
µ²´¹¯Ê³´
Crystal Defects |
41 |
| |
§N¥[¤u
Cold Working |
42 |
| |
´¹²Éµ²ºc¤Î´¹¶¡»G»k
Grain Structure & Inter-granular Corrosion |
42 |
| |
´¹²É§Îª¬
Grain Shape |
42 |
| |
¸Ñ¨M¤èªk
Solution of Corrosion Resistance |
42 |
| |
ª÷Äݯ«×
Purity |
42 |
| |
ª÷ÄݲK¥[ª«
Additive on Metal |
42 |
| |
¼ö³B²z
Heat Treatment |
43 |
| 1.8 |
ùתºµo¥Í»P¤£ù׿û¤ÎÜg¹ï¤Æ¾Çª««~ªº§Ü»G»k«ü¼Ð
Rusting, Corrosion Resistance of Stainless Steel &
Titanium against Chemicals |
45 - 47 |
| |
ùתºµo¥Í
Rusting |
45 |
| |
¤£ù׿û¤ÎÜg¹ï¤Æ¾Çª««~ªº§Ü»G»k«ü¼Ð
Corrosion Resistance of Stainless Steel & Titanium
against Chemicals |
45 - 47 |
| 1.9 |
¤£ù׿û¤§¤ÀÃþ¡A@»G»k©Ê¤Î@¼ö©Ê
Classification, Corrosion Resistance & Heat Resistance
of Stainless Steel |
49 - 50 |
| |
ÅK»Ì¨t¤£ù׿û
Chrome Stainless Steel |
49 |
| |
°¨¤óÅé
Martensite |
49 |
| |
§CºÒ°¨¤óÅé
Low Carbon Martensite |
49 |
| |
§tÅKÅé
Ferrite Stainless Steel |
49 |
| |
Âì»Ì¨t¤£ù׿û
Nickel Chrome Stainless Steel |
50 |
| |
Precipitation Hardening Stainless Steel |
50 |
| |
ÅK¿ø¾T¤£ù׿û
Fe / Mn / Al Stainless Steel |
50 |
|
1.10
|
¤HÅé¹ïÂ쪺±Ó·P
Nickel Allergy |
53 -55 |
| |
¤Þµo±Ó·Pªº¾÷¨î
Mechanism of Nickel Allergy |
53 |
| |
¬ªÂì¤Îª÷ÄÝ»G»kªºÃö³s
Nickel Emission and Metal Corrosion |
53 - 55 |
| 1.11.0 |
ºÏ¤O
Magnetic |
59 - 65 |
| 1.11.1 |
¤£ù׿ûªººÏ©Ê
Magnetic Property & Stainless Steel |
55 |
| |
½u¸g§N¤u§@«áªººÏ©Êº¯³z
Permeability after Cold Working |
59 |
| 1.11.2 |
ºÏ¾Ç
Magnetism |
60 |
| 1.11.2a |
³nºÏ
Soft Magnetic |
60 |
| 1.11.2b |
µwºÏ
Hard Magnetic |
60 |
| 1.11.3 |
ºÏ³õ
Magnetic Fields |
60 - 61 |
| 1.11.4 |
ºÏ©Ê·PÀ³
Magnetic Induction |
61 |
| 1.11.5 |
³zºÏ«×
Magnetic Permeability |
61 |
| 1.11.6 |
ºÏ¤Æ²v
Magnetic Susceptibility |
61 - 62 |
| 1.11.7 |
ºÏ¤O(magnetic force)¤ÎºÏ³õ(magnetic field)¬O¦]ª«®Æùتº¹q¤l(electron)¬¡°Ê¦Ó²£¥Íªº
Magnetic Force , Field & Electron |
62 |
| 1.11.8 |
§ÜºÏÅé¡B¶¶ºÏÅé¡BÅKºÏÅé¡B¤ÏÅKºÏÅé¤Î¨ÈÅKºÏÅé
Diamagnetism, Paramagnetic, Ferromagnetism |
63 |
| |
§ÜºÏÅé
Diamagnetism |
63 |
| |
¶¶ºÏÅé
Paramagnetic |
63 |
| |
ÅKºÏÅé
Ferromagnetism |
63 |
| |
¤ñ¸û§ÜºÏÅé¡B¶¶ºÏÅé¤ÎÅKºÏÅé
Comparision of Diamagnetic / Paramagnetic / Ferromagnetic
|
64 |
| 1.11.9 |
¤ÏÅKºÏÅé
Antiferromagnetism |
65 |
| 1.11.10 |
¨ÈÅKºÏÅé
Ferrimagnetism |
65 |
| 1.12 |
¦p¦ó¿ï¾Ü¤£ù׿û§÷
How to select Stainless Steel |
69 - 70 |
| 1.13 |
µw¤Æ¤Î¼ö³B²z
Heat Treatment Hardening |
73 - 77 |
| |
²f¤õ»Pµw¤Æ
Quenching & Hardening |
73 |
| |
¥¿±`¤Æ Normalizing |
73 |
| |
°h¤õ Annealing
|
73 |
| |
§¹¥þ°h¤õ Full Annealing |
73 |
| |
ÂX´²°h¤õ Diffusion Annealing |
74 |
| |
§C·Å°h¤õ Low Temperature Annealing |
74 |
| |
¤¤³~°h¤õ Process Annealing |
74 |
| |
²y¤Æ°h¤õ Spheroidizing Annealing |
74 |
| |
¥ú½÷°h¤õ Bright Annealing |
74 |
| |
¨ä¥L°h¤õ¤èªk Other Annealing Method |
74 |
| |
²f¤õ Quenching |
74 - 75 |
| |
®É¶¡²f¤õ Time Quenching |
75 |
| |
¶ø¤óÅé²f¤õ Austempering |
75 |
| |
°¨¤óÅé²f¤õ Marquenching |
75 |
| |
²f¤õ¾¯/§N«o³t«×
The rate of Cooling and Quenching Media |
75 - 76 |
| |
¦^¤õ Tempering |
75 - 76 |
| |
ªí±µw¤Æ Surface (case ) Hardening |
76 |
| |
º¯ºÒ¤Æ Carbonizing |
76 |
| |
´á¤Æªk Nitriding |
77 |
| |
µ¥Â÷¤l´á¤Æªk Plasma - nitriding |
77 |
| |
®ðÅ麯ºÒªk Gas Caburizing |
77 |
| |
ÆQ²Gªk Liquid Salt Bath |
77 |
| 2.0 |
±`¥Î¤£ù׿û¨÷¤ù / ¤ù / ªO¥Í²£¼Ð·Ç
Standard of General Use Stainless Steel Strip / Sheet
& Plates |
79 - 87 |
| 2.1 |
¤£ù׿û - ºØÃþ¡A¤u·~¼Ð·Ç¡A¤Æ¾Ç¦¨¥÷¡A¯SÂI¤Î¥Dn¥Î³~
Stainless Steel - Type, Industrial Standard, Chemical
Composition, Characteristic & End Usage of the most
commonly used Stainless Steel |
|
| 2.2 |
¾÷±ñ©Ê¯à
Mechanical Properties |
89 - 95 |
| 2.2.1 |
¤£ù׿û¤ù¾÷±ñ©Ê¯à
(301, 304, 631 CSP)
Mechanical Properties of Spring use Stainless Steel
(301, 304, 631 CSP) |
89 |
| 2.2.2 |
Á¡¨÷¤ù¤ÎÁ¡¤ù(0.3¦Ü2.9mm«p¤§¤ù)¾÷±ñ©Ê¯à
Mechanical Properties of Thin Stainless Steel (Thickness
From 0.3mm to 2.9mm) - strip/sheet |
90 |
| 2.2.3 |
¶ø¤óÅ餣ù׿û¦b·»²G³B²z¤Uªº¾÷±ñ©Ê¯à
Mechanical Properties of Austenitic Stainless Steel Under
Solution Treatment Conditions(SUS G4305) |
91 |
| 2.2.4 |
ÅK¯ÀÅé¤Î°¨¤óÅ餣ù׿û¦^¤õ¤Uªº¾÷±ñ©Ê¯à
Mechanical Properties Under Annealed Condition Of Stainless
Steel |
92 |
| 2.2.5 |
¤£ù׿û¤Î°ªÂì¦Xª÷ªº§Ü»Ä¤Î§Ü»G»k¯à¤O
Acid and Corrosion Resistance of Stainless Steel &
High Nickel Alloys(0.1g/m2/hr or less) |
93 - 94 |
| 2.2.6 |
@°ª·Å¤Î¨ä¥L»G»k¤£ù׿û (®ðÅé¡BÆQ¯D¡B¶u¤Î¤ô)
High Temperature Corrosion Resistance of Stainless Steel
(Against Gas, Salt-bath, Sodium and Water) |
95 |
| 2. 3 |
¤£ù׿ûºä¡B¨÷¤ù¡B¤ù¤ÎªO¤§«p«×¤ÀÃþ
Classification of Foil, Strip, Sheet & Plate by Thickness
|
96 |
| 2.4.1 |
¤£ù׿ûÀ³¤O°h¤õ¨÷¤ù±`¥Î³W®æ¦Wµü¹Ï¸Ñ
General Specification of Tension Annealed Stainless Steel
Strips |
97 - 98 |
| |
´Tªø¨÷¦±«×
Coil Set |
97 |
| |
¤ùÃäÅs¦±«×
Camber |
97 |
| |
¾î´T¨÷¦±«×
Cross Bow |
97 |
| |
§á¦±«×
Twist |
97 |
| |
¤ùÃä¾ã»ô«×
Waving at the Edge |
97 |
| |
¥W²ª¤ÎÂI»k
Dents and Pitting |
97 |
| |
½u¯¾
Lines |
97 |
| |
©Ô¤O°h¤õ«áªº¿û¤ù
Tension Annealed Material |
97 |
| |
ªo¯×¤Î¥Íù×
Grease, Oil and Rusting |
97 |
| |
¥]¥¾¿û¤ù
Interleaf Paper |
97 |
| |
®Ö¤ßª½®|
Inner Core Diameter |
97 |
| |
¥X¼tÃÒ©ú®Ñ
Mill's Certificate |
97 |
| |
¹Ï¸Ñ
Picture Description |
98 |
| 2.4.2 |
¤£ù׿û¤ù§÷±`¥Î¥N¸¹ (SUS)
Designation of SUS Special Used Stainless Steel |
99 |
| 2.5 |
ªí±³B²z (1¸¹¡A2¤B¡A2¤A¡A3¸¹¡A4¸¹¡A¥ú«G°h¤õ¡A³Â¯¾¡A¾v¯¾¡A8¸¹¿i¥ú¡AÀ£ªá¡A¬V¦â¤£ù׿û¡A¥[½¤³B²z)
Surface Finish (No.1, No.2D, No.2B, No.3, No.4, BA, DF,
HL, No.8,Emboss, Coloured, Pre-coated) |
100 - 101 |
| 2.6 |
ªí±«OÅ@½¦¯È
Surface Protection film
S.P.V-W SPP´â¤A²mW
SPV-C ´â¤A²mC
SPV-D¦X¦¨¾ð¯×
VC´â¤A²m |
102 |
| 2.7 |
Ãä½t³B²z
Edge Finish |
103 |
| 2.8 |
§`¦T¤Î¤½®t
Available Size & Tolerance |
104 - 107 |
| 2.8.1 |
¤£ù׿ûºä¤§§`¦T¤Î¤½®t
Foil-Available size & Tolerance |
104 |
| 2.8.2 |
¤£ù׿ûÁ¡¤ù¤Î¸i¤ù(0.3¦Ü2.9mm«p¤§¤ù)§`¦T¤Î¤½®t
Thin Strip & sheet(Thickness from 0.3mm to 2.9mm)Available
size & Tolerance |
105 |
| 2.8.3 |
¤£ù׿ûªO¤§§`¦T¤Î¤½®t
Stainless steel plate, heavy gauge |
106 |
| 2.8.4 |
¤£ù׿û«pªO
Stainless Steel Plate- Heavy Gauge |
107 |
| 2.9 |
¥]¸Ë¤ÎáMÀY
Marking and Packing |
108 - 110 |
| 2.9.1 |
±²¤ù¥]¸Ë
Strip Packing |
108 |
| 2.9.2 |
±i¤ù¥]¸Ë
Sheet Packing |
109 |
| 2.9.3 |
ªO§÷¥]¸Ë¥Ü½d
Plate Marking & Packing |
110 |
| 2.10 |
°Å¤ÁªA°È
Slittering & Shearing services |
111 |
| 3.0 |
¼u®¥Î¤£ù׿û
Spring Stainless Steel |
113 - 120 |
| 3.1 |
¼u®¥Î¤£ù׿û
Stainless Steel for Spring Use |
113 |
| 3.1.1 |
301¼u¤ù¶·ª¾
301 Stainless Steel used for Spring in brief |
113 |
| 3.1.2 |
¨ä¥L¤u·~½s¸¹¤£ù׿û¼u¤ù
Other Stainless Steel used for Spring
(µo±ø¤ù½Ð°Ñ¾\17.0 - page 198) |
113 |
| 3. 2 |
¤é¥»¤u·~¼Ð·Ç¼u®¥Î³~¤£ù׿û JIS G4313
Cold Rolled Stainless Steel Strip for Springs JIS G4313
|
114 |
| 3.2.1 |
¿û§÷ºØÃþ¤Î½s¸¹
Class and Grade |
114 |
| 3.2.2 |
µw«×¡BÅs¤}¡B©Ô¤O¡B«OÃÒ±j«×¤Î¦ù©µ«×(¤é¥»¤u·~¼Ð·ÇJIS G4313)
Hardness, Bend, Tensile Strength, Proof Stress and Elongation(JIS
G4313) |
116 - 117 |
| 3.2.3 |
SUS301¤Î SUS301L¤£ù׿û¦b¼ö¯àºëªî¤Uªº¾÷±ñ©Ê¯à
Mechanical Properties of SUS301 and SUS301L under Thermal
Refining Rolled Conditions |
118 |
| 3.2.4 |
Ås«×(¦±±) - ³Ì¤j®e³\È (Áï«×¶W¹L10¤½Âç)
Camber - Permissible Maximum Value (Width over 10mm) |
118 |
| 3.2.5 |
¥ª½«×(¯SÁ¡«p«×¤ù§÷)¤½¦¡
Flatness Formular |
118 |
| 3.2.6 |
¥ª½«×´ú¸Õ
Flatness Test |
119 |
| 3.2.7 |
«í·Å¶q«×V«¬¤ÎW«¬Ås¦±ªºµw«×
Hardness Measurement Under Constant Temperature Before
"V" + "W" Bend Test |
119 |
| 3.2.8 |
V«¬Ås¦±´ú¸Õ
V Bend Test |
119 |
| 3.2.9 |
W«¬Ås¦±´ú¸Õ
W-Bend Test |
120 |
| 4.0 |
²`¨R¥Î¤£ù׿û
Deep Drawing |
123 - 126 |
| 4.1 |
²¤¶ General |
123 |
| 4.2 |
¦UºØª÷Äݲ`¨R´î±²v·¥
Deep Drawing |
123 |
| 4.3 |
½è¶qpºâ¤½¦¡
Mass Formula |
124 |
| 4.4 |
¤£ù׿û¤ñ«
Specific Gravity of Stainless Steel |
125 |
| 5.0 |
¯»¥½¤£ù׿ûStainless Steel
Metal Injection Powder |
127 - 131 |
| 5.1 |
¯»¥½§Mª÷
Powder Metallurgy |
127 |
| 5.1.1 |
¶Ç²Îªº¯»¥½§Mª÷¤èªk
Traditional Powder Metallurgy |
127 - 128 |
| |
¨RÀ£ªk
Moulding method |
127 |
| |
"À£¶ô"
Briqutting |
127 |
| |
¿Nµ²
Sintering |
127 |
| |
ÁB¥¿
Shaping |
127 |
| |
®ûº¯
Impreguation |
127 |
| |
¿Nµ²·Å«×
Sintering Temperature |
128 |
| 5.1.2 |
ª`¶ì¥Î¤£ù׿ûª÷Äݯ»¥½
Stainless Steel Metal Injection Powder |
128 - 129 |
| |
ª`¶ì¥Îª÷Äݯ»¥½ÀuÂI
Advantage of Metal Injection |
128 |
| |
ª÷Äݯ»¥½ª`¶ì¬yµ{
Metal Injection Moulding Flow Chart |
128 |
| |
ª÷Äݯ»¥½ªº¿Nµ²»s«~
Metal Injection Sintering Products |
128 |
| |
¤£ù׿ûª`¶ì¯»¥½¤Î¨ä¥Lª÷Äݪ`¶ì¯»¥½ªº¾÷±ñ©Ê¯à¤ñ¸û
Comparison of different kinds of Metal Injection Moulding
material and their Mechanical Property |
129 |
| |
¯»¥½ª÷Äݪ`¶ì¤Î¶Ç²Î¯»¥½§Mª÷ªº¨RÀ£¤èªkªº¤ñ¸û³B²z
Comparison and Flow Chart of MIM and Conventional Powder
Metallurgy |
130 |
| |
¿Nµ²·Å«× / ¿Nµ²®É¶¡»P¾÷±ñ©Ê¯àªºÃö«Y
Sintering temperature / sintering time and mechanical
properties relation |
131 |
| 6.0 |
§¨¼h¥]ª÷¡B»Èµ¥¤£ù׿û¤ÎÁáª÷¡B»Èµ¥¤£ù׿û
Claded, Inlet, Plated Stainless Steel Strip |
137 - 143 |
| |
§÷®Æ
Material
|
137 |
| |
§`¦T
Dimension |
137 |
| |
Áá¼h
Under Plating |
137 |
| |
³æ±Áá¼h
Single Side Plating |
137 |
| |
§¨¼h
Cladding |
138 |
| |
Áá¼h
Plating |
139 |
| |
§¨¼h¤ÎÁá¼hª÷ÄÝ»s§@¬yµ{
Flow Chart of Claded & Plated Metal |
139 |
| |
¨ä¥L°ò¼hª÷ÄÝì®Æªº§¨¼hª÷ÄÝ
Other Base Metals' Claded Metal |
140 - 141 |
| |
¥[¤u¥Ü½d¹Ï
Plating Position & Example |
142 |
| |
¦¬¨÷¤è¦VCoiling Direction |
142 |
| |
¥Î³~
End Usage |
143 |
| 7.0 |
³q¤ÎºÞ¥Î¤£ù׿û
Stainless Tube & Pipe |
145 - 148 |
| 7.1 |
µLÁ_ºÞ¤Î¦³Á_ºÞ
Seamless Tube/Pipe & Seamed Tube/Pipe |
145 |
| 7.2 |
ºë±K²ÓºÞ
Precision Tube |
147 |
| |
©w³æn¨D Ordering |
147 |
| |
¯S¦â Features |
147 |
| |
¥Í²£¬yµ{ Production Procedures |
147 |
| |
¥Î³~ End use or purpose |
148 |
| |
§÷®Æ Materials |
149 |
| |
¥~®|¤Î¾À«p Outside diameter & wall tickness |
150 |
| |
²k±µºÞ Welded Tubing |
150 |
| |
§`¦T¤½®t§÷®Æ Dimensional Tolerances |
151 |
| 7.3 |
´¶³q¥Î³~ªº³q¤ÎºÞ
Pipe & Tube of General Use |
153 - 158 |
| |
¥Î³~ End Usages |
153 |
| |
³q¤ÎºÞ¥Í²£¬yµ{
Pipe & Tube Manufacturing Flow Chart |
153 |
| |
304¶êºÞ«¶qªí
304 Round Pipe Weight Table |
154 |
| |
430¶êºÞ«¶qªí
430 Round Pipe Weight Table |
154 |
| |
ªø¤èºÞ«¶qªí
Rectangular Pipe Weight Table |
155 |
| |
¤è§ÎºÞ«¶qªí
Square Pipe Weight Table |
155 |
| |
°ªÀW²k±µ¶êºÞ§`¦T
High Frequency Welding Round Pipe Sizes |
156 |
| |
´ã®ñ©·²k¶êºÞ§`¦T
Argon Arc Welding Round Pipe Sizes |
156 |
| |
¤èºÞ§`¦T Square Pipe Sizes |
157 |
| |
¤½®t Tolerance |
158 |
| |
¶êºÞ Round Pipe |
158 |
| |
¤èºÞ Square Pipe |
158 |
| 8.0 |
¿i¥ú/ »kªá¤£ù׿û»s³y¹Lµ{
Decorative Stainless Steel - Mirror/Etching Finished Stainless
Steel Sheet |
160 |
| 8.1 |
»s³y¬yµ{
Manufacturing Process |
161 |
| 8.2 |
¸Ë¹¢¥Î¤£ù׿û¤ù
Decorative Stainless Steel |
162 -163 |
| |
Ã豤£ù׿û¤ù
Mirror Finish - The ultimate for class and elegance |
162 |
| |
»kªá¤£ù׿û¤ù
Etching Art |
162 |
| |
¤Æ¾Ç³B²zÃC¦â¤£ù׿û¤ù
Chemical - colour - treated stainless steel |
163 |
| 9.0 |
¨¾·Æ¤è®æ¤£ù׿ûªO
Stainless Steel Checker Plate |
165 - 167 |
| |
¤Æ¾Ç¦¨¥÷
Chemical Composition |
165 |
| |
¾÷±ñ©Ê¯à
Mechanical Property |
165 |
| |
ª«²z©Ê¯à
Physical Property |
165 |
| |
¨C¤ù«¶q¤Î¨C¥¤è§`«¶q
Weight Per-Sheet and Per- Square Ft. |
165 - 166 |
| |
§÷®Æ
Material |
166 |
| |
¤½®t
Tolerance |
166 |
| |
¥[¤u²k±µ
Welding Proceeding |
167 |
| |
¥Ü½d¹Ï
Sample Drawing |
167 |
| 10.0 |
¦h¤Õ¤£ù׿ûºä/ ¤ù/ ±a/ ®üºø
Porious Stainless Steel Foil/ Sheet/ Belt/ Sponge |
169 |
| 11.0 |
@¼ö¤£ù׿û
Heat Resistance Stainless Steel |
171 - 173 |
| 11.1 |
Âì»Ì¨t@¼ö¤£ù׿û¯S©Ê¡B¤Æ¾Ç¦¨¥÷¤Î¾Þ§@·Å«×
Heat - Resistance Stainless Steel |
171 |
| 11.2 |
»Ì¨t@¼ö¿û
Chrome Heat Resistance Steel |
172 |
| 11.3 |
Âì»Ì@¼ö¿û
Chrome Nickel Heat Resistance Steel |
172 |
| 11.4 |
¶W@¼ö¿û
Superior Heat Resistance Steel |
172 |
| 11.5 |
§Ü¼ö¶W¯Å¦Xª÷
Heat Resistance Super Alloy |
172 |
| 11.6 |
@¼ö¤£ù׿û¤ñ«ªí
Specific Gravity of Heat - resistance Steel Plates and
Sheets Stainless Steel |
173 |
| 11.7 |
¼çÅÜ´ú¸Õ
Creep Test |
174 |
| |
ªþ¿ýSupplement |
|
| 12.0 |
°ªÂ줣ù׿û
High Nickel Alloy |
181 - 183 |
| 13.0 |
Âù¼hª÷ÄÝ
Bi-Metal |
184 |
| 14.0 |
³zºÏ¦Xª÷¤ÎºÏ©Ê¦Xª÷
Permalloy & Magnetic Alloy |
185 - 187 |
| 14. 1 |
³nºÏ©Ê¦Xª÷
Soft Magnetic Alloys |
185 |
| 14.2 |
¥Î³~
Usage |
185 |
| 14. 3 |
¥bµwºÏ©Ê¦Xª÷
Semi - Hard Magnetic Alloy |
185 |
| 14.4 |
¥Î³~
Usage |
185 |
| 14. 5 |
µwºÏ©Ê¦Xª÷
Hard Magnetic Alloy |
185 |
| 14.6 |
µwºÏ©Ê¦Xª÷¥Î³~
Usage of Hard Magnetic Alloy |
186 |
| 14. 7 |
ºÏP¦ùÁY¦Xª÷
Magnetostrictions Alloys |
186 |
| 14.8 |
¹q¤lºÞ¤Î¥b¾ÉÅé¦Xª÷
Alloys for Semi - Conductors & Electronic Tubes |
186 |
| 14. 9 |
¹q¤l¤Î¥b¾ÉÅé¦Xª÷¥Î³~
Usage of Semi-Conductors & Electronic Tube |
186 |
| 14.10 |
¹q¤lºÞ¤Î¥b¾ÉÅé¦Xª÷¤Æ¾Ç¦¨¥÷¤Î©Ê¯à
Chemical composition, Alloy & Characteristic of Semi-
Conductor & Electronic Tube Alloys |
187 |
| 14. 11 |
§Ü»G»k¤Î@¼ö¼u®¦Xª÷
Ant-Corrosion and Heat - Resistance Spring Alloys |
187 |
| 14.12 |
¥Î³~ End Usage |
187 |
| 14.13 |
§Ü»G»k¤Î@¼ö¼u®¦Xª÷µw«×¡B¤Æ¾Ç¦¨¥÷¡B©Ô¤Oªí
Anti - Corrosion and Heat - Resistance Spring Alloys |
187 |
| 15.0 |
Üg
Titanium |
188 - 195 |
| 15.1 |
Ügªº¤À¸Ñ
Introduction of Titanium |
188 |
| 15.2 |
ÜgªºÀuÂI
The Outstanding Characteristics of Titanium |
188 |
| 15.3 |
À³¥Î
Application |
189 |
| 15.4 |
Ügºø»s³y¬yµ{
Titanium Spongy Manufacturing Flow Chart |
190 |
| 15. 5 |
Üg¦¨§÷»s³y¬yµ{
Flow Chart of Titanium Finishing Material |
191 |
| 15.6 |
Üg¦Xª÷¤§¥[¤u
Working on Titanium Alloy |
192 |
| 15. 7 |
Ügªº¨RÀ£¥[¤u
The Moulding of Titanium |
192 |
| 15.8 |
Üg¤ñÅK§xÃø¥[¤u
Titanium is harder to work than Steel |
192 |
| 15. 9 |
°Å¤M¿ï¥Î
Selection of Cutter |
192 - 193 |
| 15.10 |
¤u¨ãÀ³«O«ù¾W§Q
Sharpness of Cutting Tool |
193 |
| 15. 11 |
¤M¨ãºØÃþ
Type of Cutting Tool
|
193 |
| 15.12 |
¤ñ¸ûÜg¡B°ª³t¿û¤ÎÂë¿û¤M¨ãªº¥[¤u¤èªk
Comparison of Working Speed of Titanium, High Speed Steel
and Carbide |
194 - 195 |
| 16.0 |
¹qÁáì®Æ
Electroplating Materials |
196 - 197 |
| |
»]µo¤ÎÂq®g§÷®Æ
Evaporation |
196 |
| |
±`¥Î¶Qª÷Äݦ¨¥÷ªí
Precious Metal & Alloys |
197 |
| 17.0 |
µo±ø¤ù
Power Spring Strip |
198 - 205 |
| 17. 1 |
µo±øªº¤ÀÃþ¤Î§÷®Æ
Material & Classification of Spring Steel Strip |
198 |
| 17.2.1 |
¤WÁåµo±ø
Wind-up Spring |
198 |
| |
¶Ç²Î¤WÁåµo±ø
Conventional Type Power Spring |
198 - 199 |
| 17.2.2 |
Ë«áÀ¿µo±ø
Pull Back Power Spring |
199 |
| 17.2.3 |
¶ê±("¤R¦Ë") µo±ø
Convex Spring Strip |
199 |
| 17.2.3.1 |
©Ô¤Øµo±ø
Measure Tape |
199 |
| 17. 2.3.2 |
Å]³N¤âÀô
Magic Tape |
199 |
| 17.2.3.3 |
Å]³N¤âÀô¤Ø¤o¹Ï
Drawing of Magic Tape |
200 |
| 17. 3 |
©w«¬µo±ø
Constant Torque Spring |
200 |
| 17.4 |
©w«¬¤Î¤WÁåµo±øªºÅX°Ê¤O¤ñ¸û
The Power of Constant Torque Spring & Wind-Up Spring
|
200 |
| 17.5 |
©w«¬µo±øªº§Îª¬¤Î½°Ê¹Lµ{
The Retraction of Constant Torque Spring |
200 |
| 17.6 |
©w«¬µo±øªºÅX°Ê¤O¤½¦¡¤Î¥N¸¹
The Formula Power of Constant Torque Spring |
201 |
| 17.7 |
Ãä½t³B²z
Edge Finish |
202 |
| 17.8 |
µw«× Hardness |
202 |
| 17.9 |
°ªºÒ¿û¤Æ¾Ç¦¨¥÷¤Î¥Î³~
High Carbon Tool Steel, Chemical Composition & Usage
|
203 |
| 17.10 |
¨C¤½¤çµo±øªºªø«×²©ö¤½¦¡
The Length of 1Kg of Spring Steel Strip |
203 |
| |
17.11 SK-5 & AISI-301¨C¤½§`ªøªº«¶q/¤½¤ç 204
(Áï100-200¤½Âç)
17.12 SK-5 & AISI-301¨C¤½¤ç¤§ªø«×
(Áï100-200¤½Âç)
Weight per one meter long(kg)(Width 100-200mm)
Length per one kg (Width 100-200mm) |
204 |
| |
17.13 SK-5 & AISI-301¨C¤½§`ªøªº«¶q/¤½¤ç
(Áï 2.0-10¤½Âç)
Weight per one meter long(kg) (Width 2.0-10mm)
|
205 |
|
17.14
|
SK-5 & AISI-301¨C¤½¤ç¤§ªø«×
(Áï 2.0-10¤½Âç)
Length per one kg (Width 2.0-10mm) |
205 |
|
18.0
|
°ªºÒ¿û¤ù
High Carbon Steel Strip |
206 - 213 |
|
18. 1
|
ºÒ¿û¤ÀÃþ
General Classification |
206 |
| 18.1.1 |
¥Î²Õ´µ²ºc¤ÀÃþ
Classification according to Crystal Structure |
206 |
| 18. 1.2 |
¥Î³~¤ÀÃþªk
Classification according to usage |
206 |
| 18.1.3 |
¥Î§tºÒ¶q¤ÀÃþ
Classification according to Carbon Content |
206 |
| 18.2 |
¼u®¥ÎºÒ¿û¤ù
String use Carbon Steel Strip |
206 - 207 |
| 18.2.1 |
§Nªîª¬ºA
Cold Rolled Strip |
207 |
| 18. 2.2 |
¦^¤õª¬ºA
Annealed Strip |
207 |
| 18.2.3 |
²f¤õ¤Î¦^¤õª¬ºA
Hardened & Tempered Strip / Precision - Quenche |
207 |
| 18.2.4 |
¨©¤óÅé¿û¤ù
Bainite Steel Strip |
207 |
| 18. 3 |
¼u®¥ÎºÒ¿û¤ù§÷¤§Ãä½t³B²z
Edge Finish of Carbon Steel Strip for Spring |
207 |
| 18.4 |
²f¤õ¾¯
Quenching Media |
208 |
| 18. 5 |
ºÒ¿û¦^¤õ
Tempering |
208 |
| 18.5.1 |
¦^¤õ¦³§C·Å¦^¤õ¤Î°ª·Å¦^¤õ
High & Low Temperature Annealing |
208 |
| 18.5.2 |
°ª·Å¦^¤õ - ±N²f¤õ¿û¥Î500¢XC¥H¤W¦^¤õ¡A¥s°ª·Å¦^¤õ
High Temperature Annealing
|
208 |
| 18.6 |
°h¤õ
Annealing |
209 |
| 18.6.1 |
§¹¥þ°h¤õ
Full Annealing |
209 |
| 18.6.2 |
ÂX´²°h¤õ
Diffusion Annealing |
209 |
| 18.6.3 |
§C·Å°h¤õ
Low Temperature Annealing |
209 |
| 18.6.4 |
¤¤³~°h¤õ
Process Annealing |
209 |
| 18.6.5 |
²y¤Æ°h¤õ
Spheroidizing Annealing |
209 |
| 18.6.6 |
¥ú½÷°h¤õ
Bright Annealing |
209 |
| 18. 7 |
²f¤õ
Quenching |
210 |
| 18.7.1 |
®É¶¡²f¤õ
Time Quenching |
210 |
| 18.7.2 |
¶ø¤óÅKÅé¦^¤õ
Austempering |
211 |
| 18. 7.3 |
°¨¤óÅKÅé²f¤õ
Marquenching |
211 |
| 18.7.4 |
°ªºÒ¿û¤ù¥Î³~
The End Usages of High Carbon Steel Strip |
211 |
| 18.8 |
§Nªî°ªºÒ¿û - ¤é¥»¤u·~¼Ð·Ç
Cold-Rolled (Special Steel) Carbon Steel Strip to JIS
G3311 |
212 - 213 |
| 19.0 |
¨íÄG(«cŽ)¤M¤ù¿û
Razor Blade Steel |
214 |
| 19.1 |
¯SÂI
Characteristics |
214 |
| 19.2 |
¤Æ¾Ç¦¨¥÷ Chemical Composition |
214 |
| 19.3 |
±`¥Î¤Ø¤o (¤½Âç)
Sizes (mm) |
214 |
| 20.0 |
´°w¥Î±a¿û
Knitting Needle Round Edges Steel Strip |
215 |
| 20.1 |
¯SÂI
Characteristics |
215 |
| 20.2 |
¿ûºØ¡B¤Æ¾Ç¦¨¥÷¤Î±`¥Î«p«×
Steel Type, Chemical Composition and Needle Thickness
|
215 |
| 20.3 |
Ãä½t³B²z
Edge Finish |
215 |
| 20.4 |
¾÷±ñ©Ê¯à
Mechanical Properties |
215 |
| 20.5 |
²æºÒ¤Îµ²ºc
Decarburization and Structure
|
215 |
| 21.0 |
¹qÁáª÷Äݸi¤ù
Plate Metal Strip |
216 |
| 21.1 |
²¤¶
General |
216 |
| 21.2 |
¹qÁáª÷Äݸi¤ùªºÀuÂI
Advantage of Using Plate Metal Strip |
216 |
| 21.3 |
ª÷Äݸi¤ù¹qÁá¼h
Plated Layers of Plated Metal Strip |
217 |
| 21.3.1 |
ÁáÂì
Nickel Plated |
217 |
| 21.3.2 |
Áá»Ì
Chrome Plated |
217 |
| 21.3.3 |
Áá¶À»É
Brass Plated |
217 |
| 21.4 |
°ò¼hª÷ÄÝ
Base Metal of Plated Metal Strip |
218 |
| 21.4.1 |
§CºÒ¿û©ÎÅK°ò¼hª÷ÄÝ
Iron & Low Carbon as Base Metal |
218 |
| 21.4.2 |
¤£ù׿û°ò¼hª÷ÄÝ
Stainless Steel as Base Metal |
218 |
| 21.4.3 |
»É°ò¼hª÷ÄÝ
Copper as Base Metal |
218 |
| 21.4.4 |
¶À»É°ò¼hª÷ÄÝ
Brass as Base Metal |
218 |
| 22.0 |
»È«G±¹qÁá¿û¤ù
Electrogalvanized (Silver top) steel strip/ sheet |
219 - 224 |
| 22.1 |
»È¥ú(V³B²z)¥ú½÷(ST)¤Î¶Â»È(W³B²z)µ¥¯SºØ¥Î³~(»È«G±) ¹qÁá¿û¤ùªº²Õ´¤ñ¸û
Structure of Silver top V-treatment "HA-TO",
Bright metallic-ST,Black Silver W-treatment special Function
Electrogalvanized (Silver top) steel strip/ sheet |
220 |
| 22.2 |
»È«G±¹qÁá¿û¤ùªº¯SÂI
Special features of Electrogalvanized (Silver top)steel
strip/ sheet |
221 - 224 |
| 23.0 |
¥´¤Õ¿û¤ù
Perforated Metal |
225 - 227 |
| |
¶ê¤Õ(0.2¦Ü0.75¤½Íù)
Round Hole (to 0.75 m/m) |
226 |
| |
¶ê¤Õ(¤j©ó0.8¤½Íù)
Round Hole (to 0.8 m/m over) |
226 |
| |
¨ä¥L§Îª¬¥]¬A
Others shapes |
227 |
| 24.0 |
¹q¾¹¥Îªºª¿ [ Öº ] ¿û¤ù
Silicon Steel Sheet for Electrical Use |
228 - 229 |
|
24.1
|
²¤¶
General |
228 |
| 24.1.1 |
³nºÏ§÷®Æ
Soft Magnetic Material |
228 |
| 24.1.2 |
º¢«á¦^½u
Narrow Hysteresis Loops |
228 |
| 24.1.3 |
ÁB¹xºÏ¤O
Coercive Force |
228 |
| 24.1.4 |
µwºÏ§÷®Æ
Hard Magnetic Alloys |
228 |
| 24.1.5 |
³Ì¤j¯à¶q¿n
Maximum energy product |
228 |
| 24.1.6 |
Öº§t¶q¹ï¹q¾¹¥Îªº§CºÒ¿û¤ùªº³Ì¤j¦n³B
The Advantage of adding Silicon to Low Carbon Steel |
229 |
| 24.1.7 |
´¹²É¨ú¦V(Grain-Oriented)¤Î«D´¹²É¨ú¦V(Non-Oriented)
|
229 |
| 25.0 |
ÅK»Ì¹WºÏ¦Xª÷
Iron Chromium Cobalt Magnetic Alloys |
230 |
| |
¹q¸Üµ©¥Ã¤[ºÏªº¦w©ñ¤Á±¹Ï
Permanent Magnet on Telephone Receiver |
230 |
|
26.0
|
µ}¤gºÏ¦Xª÷
Rare Earth Alloys |
231 |
| 27.0 |
×ýÅK¸NºÏ¦Xª÷
Neodymium (Nd) - Iron (Fe) - Boron (B) Magnetic Alloys |
231 |
| |
¤ñ¸ûÅK»Ê¹W¡B¥Ã¤[ºÏ¡Bµ}¤gºÏ¡B×ýÅK¸NºÏªº³Ì°ªºÏ¿n
Comparison of Alnico Earth, Neodymium, maximum Energy
product, KJ/m3 |
231 |
| 28.0 |
¯»ºÏ Ferrites |
232 |
| 29.0 |
³n¯»ºÏ Soft Ferrites |
232 |
|
30.0
|
Öº§CºÒ¿û¤ù (Öº¿û¤ù)
Silicon Low Carbon Steel |
232 |
| 30.1 |
Âì¤ÎÖº¦Xª÷³nºÏ§÷®ÆªººÏ¤O©Ê¯à
Magnetic Properties of some Materials |
233 |
| 30.2 |
¬Á¼þºÏ§÷ªº¥Î³~¤Æ¾Ç¦¨¥÷/¹q¤l²v¡B"ºÏ¤O¹¡©M©M·PÀ³" ¤Î"³Ì°ª¾ÉºÏ²v"
Metallic Glasses : Chemical Composition, Properties and
Applications |
233 |
|
31.0
|
ÂìÅK¦Xª÷
Ferro - Nickel Alloy |
234 |
| 32.0 |
µ´½t³³²¡
Porcelain for insulators |
235 |
| 33.0 |
°ª·s¬ì§ÞµL¾÷§÷®Æ
Inorganic Matericals |
236
|