| 1.0 |
»É¤Î»É¦Xª÷
Copper and Copper Alloy
|
1 - 70
|
|
1.1
|
»Éªº·§ªp
Copper |
2 - 3 |
| 1.1.1 |
»ÉªºÂ²¤¶
Copper in General |
2 |
| 1.1.2 |
²£¦a
Origin |
3 |
| 1.1.3 |
²£¶q
Production Quantity |
3 |
| 1.2 |
»Éªº´£·Ò
Refinery of Copper |
3 |
| 1.3 |
»É¤Î»É¦Xª÷(¶À»É¡B«C»É¡BÁC»Éµ¥)¥Í²£¬yµ{
Copper and Copper Alloy Flow Chart |
4 |
| 1.4 |
»É©Ê¯à¤Î»É¦Xª÷¥÷¶qªí
Copper Based Alloy Constituents Chart |
5 |
| 1.5 |
¯Â»É
Copper |
6 - 8 |
| 1.5.1 |
²æ®ñ»É
Oxygen free high conductivity Copper - OFHC |
6 |
| 1.5.2 |
¶´©Ê»É
Tough Pitch Copper |
6 |
| |
»É®ñ¤Æª«
Copper Oxide |
6 |
| |
²yª¬Å骺«¬¦¨
Globules Formation |
6 |
| |
²yª¬Å骺¤£¦n³B
Disadvantages of Globules in Copper |
6 |
| |
²yª¬Å骺¦n³B
Advantages of Globules in Copper |
6 |
| 1.5.3 |
»Éªº¾É¹q©Ê¯à
Electrical Conductivity of Copper |
7 |
| |
¦Ê¥÷¦Ê¾É¹q©Ê¯àªº³]©w
100%Conductivity |
|
| |
¶W¹L¦Ê¥÷ªº¾É¹q©Ê¯à
Over 100% Conductivity |
|
| |
²æ®ñ°ª¾É¹q»É
Oxygen free high conductivity copper |
|
| 1.5.4 |
¯Â»Éªº¥Î³~End Usages of Copper |
8 |
| 1.6 |
»É¤ôºÞ Water Tube |
9 - 13 |
| |
»É¤ôºÞÀuÂI
Advantage of Water Tube |
9 |
| |
³W®æ
Rules |
9 |
| |
ºÞ¹Dªº«p«×
(Conduit size) |
9 |
| 1.6.1 |
²³æpºâºÞ¹D¤Ø¤o
Simple Principal of Calculating pipe size |
10 |
| 1.6.2 |
¤£¦P¥Î³~ªº¤ôºÞªºª½®|¤Î¥Î³~
Minimum Copper Tube Sizes for Short Branch Connections
to Fixture |
10 |
| 1.6.3 |
¥]¸Ë¤èªk
Packing Method |
10 |
| 1.6.4 |
q³f»Ýª¾Ordering |
11 |
| 1.6.5 |
µLÁ_»É¤ôºÞ¤Æ¾Ç¦¨¥÷(¬ü§÷¾Ç·|ASTM B88)
Chemical Composition of seamless copper water tube (to
ASTM B88) |
12 |
| 1.6.6 |
µLÁ_»É¤ôºÞ¾÷±ñ©Ê¯à(¬ü§÷¾Ç·|ASTM B88)
Mechanical Properties of seamless copper water tube to
ASTM B88 |
12 |
| 1.6.7 |
µLÁ_»É¶¼¤ôºÞªº³s±µ¤èªk
Joining of Copper Tube for water and non-corrosive gases
|
12 |
| 1.6.8 |
µLÁ_»ÉºÞªº¼Ð·Ç¤Ø¤o, ¤u§@À£¤O, «¶q
Copper Seamless tube - Standard Size, Working Pressure
and Weight |
13 |
| 1.7 |
¤º§|»ÉºÞ
Turner Grooved Copper Tube |
14 |
| |
¤º§|§Îª¬
Groove Shape |
|
| |
¼Ð·Ç¤Ø¤o
Standard Sizes |
|
| 1.8 |
ªÅ½Õ¤Î§NáÂd»ÉºÞ
Copper, Arc Tube |
15 - 16 |
| |
¤Æ¾Ç¦¨¥÷¤Îµw«× Chemical Composition and Hardness
|
15 |
| |
¾÷±ñ©Ê¯àMechanical Properties |
15 |
| |
¼Ð·Ç¤Ø¤o¡B«¶q¤Î¤½®t
Standard Sizes, Weights and Tolerances |
16 |
| |
¥]¸Ë¤èªk
Packing Method |
16 |
| |
©w³f
Ordering |
16 |
| 1.9.1 |
¦a¥x»ÉºÞ
Floor Heating Copper Tube |
16 |
| 1.9.2 |
¥]½¦»ÉºÞ
Plastic-sheathed Copper tube |
17 |
| 1.10 |
´²¼öÁl¤ù»ÉºÞ
Finned Tube |
17 |
| 1.11 |
ű³y¥Î¯Â»É(¤é¥»¼Ð·ÇJIS H5100)
Pure Copper Casting for General Use to JIS H5100 |
17 |
| |
»É¦Xª÷
Copper Alloy |
19 - 68 |
| 1.12 |
¶À»Éªº¤ÀÃþ¡B¾N§t¶q¡B¥[¤u¤èªk¡B¦â¿A¡Bµw«×©Ô¤O ¤Î¦ù©µ«×ªí
Brass - Type , Zinc Properties, Working Method, Colour,
Hardness & Tensile Strength and Ductility Chart |
20 |
| |
¶À»É Brass |
21 - 24 |
| 1.13 |
¶À»ÉBrass |
21 |
| |
©T¬Û½u¤Î¾N·»¦X¦Ê¥÷¤ñ
Solidus Temperature and Zinc Dissolution Ratio |
21 |
| 1.13.1 |
§Ö«d¶À»É Free Cutting Brass |
21 |
| 1.13.2 |
°ª©Ô¤O¶À»É High Tensile Brass |
21 |
| 1.13.3 |
°Ó¥Î¶À»É Commercial Brass |
22 |
| 1.13.4 |
®üx¶À»É Naval Brass or Admiralty Brass |
23 |
| 1.13.5 |
ű³y¥Î¶À»É
Brass Ingot for Castings (to JIS H5101) |
|
| 1.13.6 |
ű³y¥Î°ª©Ô¤O¶À»É
High Strength Brass Ingots for Castings to JIS H2205 |
23 |
| |
«C»É
Bronze |
24 - 25 |
| 1.14.1 |
«C»Éªº¦X¦¨
Bronze, metal ingredients |
24 |
| 1.14.2 |
ÁC»É(ÁC«C»É)
Phosphor Bronze |
24 |
| 1.14.3 |
§t¾N«C»É
Zinc Bronze |
24 |
| 1. 14.4 |
§t¹]«C»É
Leaded Bronze |
25 |
| 1.14.5 |
ÁC«C»É¡B«C»É¡B®üx«C»É¤Î§t¹]¬õ¶À»Éªº¤Æ¾Ç¦¨¥÷,¾÷±ñ©Ê¯à¤Î¥Î³~¯SÂI
Phosphor-bronzes, Tin Bronzes and Red Brass -Chemical
composition, mechanical properties, end usage & characteristic |
26 |
| 1.15 |
¾T«C»ÉAluminum Bronze |
27 - 28 |
| 1. 15.1 |
¯S¦â
Features |
27 |
| 1.15.2 |
ű³y§xÃø
Casting Problem |
27 |
| 1.15.3 |
ºØÃþ¤Î¥Î³~
Type and End Usage |
27 - 28 |
| |
a Ãþ§N§@¾T«C»É¦Xª÷
(a+ y2) Ãþ¼ö§@Ãþű³y¦Xª÷
(a-Phase, Cold-working alloy)
(a+ y2 (gamma) phase Hot-working and casting alloy) |
|
| 1.15.4 |
ű³y¥Î¾T«C»É(¤é¤u¼Ð·ÇJIS H2206)
Aluminum Bronze Ingots for Castings to JIS H2206 |
28 |
| |
Âì»É Nickel Copper |
29 - 30 |
| 1.16.1 |
¥Õ»É Nickel Sliver |
29 |
| 1.16.2 |
®üxÂì»É¦Xª÷ Nickel Copper Alloys for Marine Purpose
|
29 |
| |
ÀuÂI
Advantage |
|
| |
¥Î³~
End Useage |
|
| 1.16.3 |
µw¹ôÂì»É Cupro Nickel |
29 |
| 1.16.4 |
Âì»Éªºª¬ºA¡B¤Æ¾Ç¦¨¥÷¡B©Ô¤O¡B¾÷±ñ©Ê¯à¡B¥Î³~¤Î ¯SÂI(^°ê¼Ð·ÇBS2870/5,3072/6,
NES824)
Copper Nickel Alloys to BS2870/5, 3072/6 & NES824,condition,
chemical properties feature & end usages |
30 |
| 1.17 |
»Ì»É
Chromium Copper |
31 |
| 1.18 |
èp»É
Zirconium Copper |
31 |
| 1.19 |
Öº»É
Silicon Copper |
31 |
| 1.20 |
®û¿ü»É©Î»É¦Xª÷
Hot-dip tinned copper or alloy strip |
31 |
| 1.21 |
½ü¹ø³]©w»É¦Xª÷¤ù§÷
Contour - miller copper alloy strip |
32 |
| 1.22 |
¤Ö¼Æ¥i²f¤õªº»É¦Xª÷
Heat-Treatable Copper Alloy |
33 |
| (a) |
¹e»É
Beryllium Copper |
33 |
| (b) |
Üg»É
Titanium Copper |
33 |
| (c) |
§t»Éªº§Îª¬°O¾Ðª÷ÄÝ
Shape Memory Copper Alloy |
33 |
| 1.23 |
»É¦Xª÷¤ùªº±`¥Î¦Xª÷¦WºÙ¡Bª«²z©Ê¯à¡B©Ô¤O¤Î¦ù©µ«×
Copper Alloy - Sheet and Strip, Alloy Name, Physical Properties,
Tensile Strength and Elongation |
34 - 35 |
| 1.24 |
»É¤Î»É¦Xª÷¤ù¤ÀÃþ¡B¤u·~¼Ð·Ç¡Bµ¥¯Å¡B¤Æ¾Ç¦¨¥÷¡B¥Î³~ ¤Î¯S©Ê
Copper and Copper Alloy - Strip and Sheet Classification,
Industrial Standards, Class , Chemical Composition, Application
and Characteristics |
37 - 39 |
| 1.25 |
»É¤Î»É¦Xª÷¤ùªº«p«×¤ÎÁï«×¤½®t
Copper and Copper Alloy - Strip and Sheet, Thickness and
Width Tolerance |
40 |
| 1.26 |
»É¤Î»É¦Xª÷¤ù¡BªO¤Î¨÷¤ùªº¼Ð·Ç¤Ø½X
Copper and copper Alloy Strip, Sheet and Plate Standard
Measurement |
41 |
| |
¤ù¤ÎªO
Sheets and Plates |
41 |
| |
¨÷¤ù
Strips |
41 |
| 1.27 |
»É¤Î»É¦Xª÷¥b»s«~
Semi-finished Product of Copper and Copper Alloy |
41 |
| 1.28 |
»É¤Î»É¦Xª÷¤ùªº¾÷±ñ©Ê¯à
Copper and Copper Alloy, Mechanical Properties |
42 - 43 |
| 1.29 |
»É¤Î»É¦Xª÷ªK§÷¤Î´Î§÷ªº¤ÀÃþ¡B¤u·~¼Ð·Ç¡Bµ¥¯Å¡B¤Æ¾Ç ¦¨¥÷¡B¥Î³~¤Î¯S©Ê
Copper and Copper Alloy - Rod and Bar Classification,
Industrial Standards, Class, Chemical Composition, Application
and Characteristics |
44 - 46 |
| 1.30 |
§Ö«d¶À»É§÷¤Î´Î§÷ªº¾÷±ñ©Ê¯à
Free Cutting Brass Rod and Bar - Mechanical Properties |
47 - 49 |
| 1.31 |
»É¤Î»É¦Xª÷ªK¤Î´Î§÷ªº¼Ð·Ç¤Ø½X
Copper and Copper Alloy Strip, Sheet and Plate Standard
Measurement |
50 |
| |
ªK¤Î´Î
Rods and Bars |
50 |
| |
½u
Wires |
50 |
| 1.32 |
»É¤Î»É¦Xª÷ªK¤Î´Î¥b»s«~
Semi-finished Product of Copper and Copper Alloys |
51 |
| |
¥b»s«~
Semi-finished |
51 |
| |
²£«~ÀuÂI
Advantages |
51 |
| 1.33 |
»É¤Î»É¦Xª÷, ½u§÷ªº¤ÀÃþ¡B¤u·~¼Ð·Ç¡Bµ¥¯Å¡B¤Æ¾Ç¦¨¥÷¡B ¥Î³~¤Î¯S©Ê
Copper and Copper Alloy - Wire Classification, Industrial
Standards, Class, Chemical
Composition, Application and Characteristics |
52 - 54 |
| 1.33.1 |
¶ê¡A¤»¨¤¡Aªø¤è¡A¥¿¤èªK¤Î´Î¤§ª½®|¤Ø¤o¤½®t¤Îªø«×
The dimensional tolerances of diameter and length of Round,
Hexagonal, Rectangular and Square Rods and Bars. |
54 |
| 1. 34 |
»É¤Î»É¦Xª÷½uªºª½®|¤½®t
Copper and Copper Alloy Wire Diameter Tolerance |
55 |
| |
¶ê½u
Round Wire |
55 |
| |
¤è½u
Square Wire |
55 |
| |
¤»¨¤½u
Hexagonal Wire |
55 |
| 1.35 |
»É¤Î»É¦Xª÷½uªº´¹²ÉÅé¤j¤p
Copper and Copper Alloy, Grain Size |
56 |
| 1.36 |
»É¤Î»É¦Xª÷½uªº¾÷±ñ©Ê¯à
Copper and Copper Alloy, Mechanical Properties |
56 |
| 1.37 |
µL¤è¦V©Ê²`¨R¥Î³~¤ù§÷
Deep Drawing Purpose (non-earing) strip & sheet, Non-directional
|
57 |
| |
"¾í¥Ö¯¾"¦¨¦]
Earing |
57 |
| |
pºâ¦Õ¦· "¾í¥Ö¯¾" ªº¤èµ{¦¡
Calculation of earing percentage |
57 |
| 1.38 |
²`¨R¤ù®Æ
Deep Drawing Material |
57 - 58 |
| |
²`¨R¤ñ¨Ò
Deep Drawing Quality (DDQ) Strip / Sheet |
57 |
| |
UºØª÷Äݲ`¨R´î±²v·¥
Limits of deep drawing in Practice of Various Metal |
|
| |
´î±²v·¥¤ñ²v
Reduction Limit Ration |
58 |
| 1.39 |
¯S§O©Ê¯à¤ù§÷
Material with Speical Feature |
58 - 59 |
| |
À³¤O®ø°£
Stress |
58 |
| |
®ø°£¬y½u
Freedom from Flow Line |
58 |
| |
³n©Ê¦^¤õ
Soft temper |
58 |
| |
¹q»k
Etching |
59 |
| 1.40 |
»É¦Xª÷¥Î³~(¥H¦æ·~¤ÀÃþ)
Copper Alloy Strip & Sheet End Usage
(classified by trade) |
59 - 60 |
| 1.41 |
ª½±µÀ½À£ªk¤Î«Dª½±µÀ½À£ªk
Direct and Indirect Extrusion |
61 |
| 1.42 |
§¨¼h¤ÎÁá¼h¦Xª÷ Cladded and Plated Metal Alloy |
62 - 68 |
| |
§¨¼h¤èªk
The Method of Cladding |
62 |
| |
§¨¼h¥]¬A°ò¼h¤Î¥Ö¼h
Cladding included Base & Cladding Metal |
62 |
| 1.42.1 |
§¨¼h¥Ü½d¹Ï
Types of Cladding |
62 |
| |
¾ãÅé´OÆ^
Over lay |
62 |
| |
§½³¡´OÆ^(¥þ³´¤J)
In lay |
62 |
| |
¨¤´O
Corner lay |
62 |
| |
Ãä´O
Edge lay |
62 |
| |
³»´O(¥b³´¤J)
Top lay |
62 |
| |
¦h¼h´OÆ^
Multi-layer inlay |
62 |
| 1.42.2 |
Áá¼hPlating |
63 |
| 1.42.3 |
§¨¼h¤ÎÁá¼hª÷ÄÝ»s§@¬yµ{
Flow Chart of Claded & Plated Metal |
63 |
| 1.42.4 |
¦UºØ°ò¼hª÷ÄÝì®Æªº§¨¼hª÷ÄÝ
Various Base Metals' Other Claded Metal |
64 - 65 |
| 1.42.5 |
¥[¤u¥Ü½d¹Ï
Plating Position & Example |
66 |
| 1.42.6 |
¦¬¨÷¤è¦V
Coiling Direction |
66 |
| 1.42.7 |
¥Î³~
End Usages |
67 |
| 1.42.8 |
§¨¼h¥]ª÷¡B»Èµ¥¤£ù׿û¤ÎÁáª÷¡B»Èµ¥¤£ù׿û
Claded, Inlet or Plated Stainless Steel Strip |
68 |
| 1.43 |
¤À¿ë»É¦Xª÷ªºª«²z¤Î¤Æ¾Ç¤èªk
Indentification of Copper and head Alloy by Physical and
Chemical Test |
69 |
| 1.44 |
¹qÁá¥Îªº»É§÷®Æ¤Î¤Æ¾Ç«~
Electroplating Purpose Copper Materials Alloy |
70 |
| 2.0 |
¾T¤Î¾T¦Xª÷
Aluminum and Aluminum Alloy |
71 - 121 |
| 2.1 |
¾TªºÂ²¤¶Aluminum in General |
73 |
| 2.2 |
²£¦aOrigin |
73 |
| 2.3 |
´£·ÒRefinery |
73 |
| 2.4 |
¾TªºÀuÂIOutstanding Characteristics of Aluminum
|
73 - 74 |
| 2.5 |
¥Í²£¤èªk¤Î¥Í²£¬yµ{
Production Method & Production Flow Chart
|
75 - 77 |
| 2.5.1 |
¾T¿õªº»s³y¬yµ{
Production of Ingot |
75 |
| 2.5.2 |
¾T¤Î¾T¦Xª÷¦¨«¬§÷ªº¥Í²£¬yµ{
Production of Aluminum and Alloy Material |
76 |
| 2.5.3 |
¾T§÷ªºªí±³B²z
Aluminum Surface Treatment |
77 |
| 2.6 |
§Ü»G»k¯à¤O
Corrosion Resistance Properties |
78 |
| 2.7 |
¾T§÷ªº§Ü¤Æ¾Ç»G»k¯à¤O
Corrosion Resistance of Aluminum Against Chemical |
79 - 82 |
| 2.8 |
¾T¤Î¾T¦Xª÷¤ÀÃþ
Classification of Aluminum & Aluminum Alloys |
83 - 84 |
| 2.8.1 |
¤ñ¼ö¤Î¼ö³B²z¾T§÷¤Î¤£¥i¼ö³B²z¾T§÷
Comparison of Heat-treatable and Non-treatable Alloy |
83 |
| |
©Ô¤O
Tensile Strength |
|
| |
¦Xª÷
Alloy |
|
| |
§Ü»G»k¯à¤O
Corrosion Resistant |
|
| |
±µ¦X
Jointing |
|
| |
¾÷±ñ¥[¤u
Machining |
|
| 2.8.2 |
¤£¥i¼ö³B²zºë·Ò¾T¦Xª÷
Not-heat-treatable Wrought Aluminum Alloy |
84 |
| 2.8.3 |
¤£¥i¼ö³B²zű¾T¦Xª÷
Not-heat-treatable Cast Aluminum Alloy |
84 |
| 2.8.4 |
¥i¼ö³B²zºë·Ò¾T¦Xª÷
Heat-treatable Wrought Aluminum Alloy |
84 |
| 2.8.5 |
¥i¼ö³B²zº²Å±¾T¦Xª÷
Heat-treatable Wrought Aluminum Alloy |
84 |
| |
²L½Í¾T§÷¤u·~¼Ð·Ç
Industrial Standards of Aluminum & Alloys |
85 - 113 |
| 2.9 |
¬ü°ê¼Ð·Ç
American Standards |
85 - 99 |
| 2.9.1 |
¾T¤Î¾T¦Xª÷(Alloy Designation)°ò¥»ªº¾÷±ñ©Ê¯à
Typical mechanical properties of Aluminum & Aluminum
alloy |
85 |
| 2.9.2 |
¦^¤õª¬ºA
(Temper Designation) |
86 - 88 |
| 2.9.3 |
µø¤OÀˬd¾T§÷¤èªk
(Visual Inspection) |
88 - 89 |
| 2.10 |
¤é¥»¤u·~¼Ð·Ç
Japan Industrial Standard (JIS)
|
90 |
| 2.11 |
^°ê¼Ð·ÇBritish Standard (BS) |
91 |
| 2.11.1 |
"¤£¥i¼ö³B²z¾T§÷"¤Î"¥i¼ö³B²z¾T§÷"
Heat-Treatable & Non Hea-Treatable Alloy |
91 |
| 2.11.2 |
§÷®Æªº§Îª¬
Materials Shape |
91 |
| 2.11.3 |
¯Â«×
Purity |
91 - 92 |
| 2.11.4 |
¾Tªºª¬ºA
Condition |
92 - 93 |
| 2.12 |
^°ê¼Ð·Ç¤uµ{¾T§÷ªºµw«×¤Î¼ö³B²z¥N¸¹
Engineering Aluminum Under British Standard |
94 - 95 |
| 2.13 |
¨ä¥L¼Ð·Ç
Other Standards |
96 |
| 2.14 |
¾T - ºØÃþ¡M¤u·~¼Ð·Ç¡M¤Æ¾Ç¦¨¥÷¡M¯SÂI¤Î¥Dn¥Î³~
Aluminum - Type, Industrial Standard, Chemical Composition,
Characteristic & end usage of the most commonly used
Stainless Steel |
97 - 108 |
| 2.15 |
¬ü°ê¾TªO¼Ð·Ç¹ï·ÓªíU.S. Aluminum Plate Standard |
109 |
| 2.16 |
¾TªO«¶qªí(2024¤Î7075¦Xª÷)
Weight of Aluminum Plate (For 2024 and 7075 alloy) |
109 |
| 2.17 |
¾T´Î¼Ð·Ç¹ï·Óªí
Comparison of Aluminum Bars Standard |
110 |
| 2.18 |
¶ê¾TªK(2024¤Î7075¦Xª÷)
Aluminum Rounds (2024 and 7075 alloy) |
111 - 113 |
| 2.19 |
¥|¤è¾TªK(2024¤Î7075¦Xª÷)
Aluminum Square (2024 and 7075 alloy) |
114 |
| 2.20 |
ªø¤è¾TªK(2024¤Î7075¦Xª÷)
Aluminum Rectangle (2024 and 7075 alloy) |
115 - 119 |
| 2.21 |
¤»¨¤§Î¾TªK(2024¤Î7075¦Xª÷)
Aluminum Hex (2024 and 7075 alloy) |
120 - 121 |
| 3.0 |
Üg¤ÎÜg¦Xª÷
Titanium and Titanium Alloy |
125 - 173 |
| 3.1 |
ÜgªºÂ²¤¶
Titanium in general |
125 - 127 |
| 3.1.1 |
Üg¤ÎÜg¦Xª÷ªºÀ³¥Î
Application |
125 |
| 3.1.2 |
À³¥Î¨Ò
Example of Application |
126 |
| 3.1.3 |
Üg§÷ªº¨ÑÀ³
Supply of Titanium |
127 |
| 3.1.4 |
Ügªº²£¦a
Origin of Titanium |
127 |
| 3.2 |
»s·Ò
Refinery |
128 - 129 |
| 3.2.1 |
Ügºø»s³y¬yµ{
Titanium Spongy Manufacturing Flow Chart |
128 |
| 3.2.2 |
Üg¦¨«¬§÷»s³y¬yµ{
Flow Chart of Titanium Finishing Material |
129 |
| 3.3 |
ÜgªºÀuÂI
The Outstanding Characteristic of Titanium |
130 |
| 3.4 |
Üg¦Xª÷¤§´¹®æµ²ºc
Grain Structure of Titanium Alloy |
130 |
| 3.5 |
Üg¡BÅK¡B¤£ù׿û¤Î¾Tªº©Ê¯à¤ñ¸û
Comparison of Properties of Titanium Steel, Stainless
Steel and Aluminum |
131 |
| |
¥[¤u§Þ³N
Working Methods |
132 - 143 |
| 3.6 |
Üg¦Xª÷¤§¥[¤u
Working on Titanium Alloy |
132 - 135 |
| 3.6.7 |
Üg¡B°ª³t¿û¤ÎÂë¿û¤M¨ãªº¥[¤u¤èªk¤ñ¸û
Comparison of Working Speed of Titanium, High Speed Steel
and Carbide |
134 - 135 |
| 3.6.8 |
¨RÀ£¤Î²`¨R
Forming & Deep Drawing |
136 - 137 |
| |
¨RÀ£
Forming |
136 |
| |
¨RÀ£·Å«×
Forming Temperatures for Unalloyed Titanium and Titanium
Alloys |
136 |
| |
²`¨RDeep Drawing |
136 |
| (a) |
¼í·Æ«~
Lubrication |
136 |
| (b) |
Üg»P¤£ù׿û(304 & 403 )¡B»É¡BÅKµ¥ª«²z¯S©Ê¤Î¾÷±ñ¯S©Ê
Comparison of physical and mechanical properties of Titanium,
Stainless Steel (304 & 403) and mild steel |
137 |
| (c) |
©}ºP´ú¸Õ
Bending test |
137 |
| 3.6.9 |
Æp
Drilling |
138 |
| 3.6.10 |
Ügªº¬ã¿i
Grinding |
139 |
| |
§N«o²G
Coolant |
139 |
| |
¾A·í¤§½ü³t
Suitable Wheel Speed |
139 |
| |
¬Á¼þµ²¦X½ü (Vitrified Bond) A60 wheel
Vitrified bond |
139 |
| |
¿i½üªº³t«×¡B°e®Æ³t¤Î¨ä¥L°Ñ¼Æ Wheel Designation , Speed
and Feeding of Material |
139 |
| 3.6.11 |
§S
Milling |
140 |
| 3.6.12 |
¨®
Turning |
141 |
| |
¨®¤uªº¤u¨ã¤§´X¦ó½s±Æ
Tool Geometry for Turning Titanium |
141 |
| 3.6.13 |
³s±µÜg¦Xª÷
Jointing |
142 |
| 3.6.14 |
¾Z±µ»Pº²¸Ñ
Welding & Soldering |
142 |
| |
¾Z±µ
Welding |
142 |
| |
¾Z±µªº¤èªk |
142 |
| |
TIG ªk¾Z±µ«áªº±¡ªp |
142 |
| |
º²²k
Soldering |
143 |
| |
º²²k§÷®Æ¤Î·Å«×
Typical Solders and Soldering Temperatures |
143 |
| 3.6.15 |
ºPÅs
Bending |
143 |
| |
ÜgºÞºPÅs
Titanium Bending |
|
| 3.7 |
³B²z
Treatment |
144 |
| 3.7.1 |
¨¾¤î¿i·lSurface Treatment |
144 |
| (a) |
´á¤Æ Nitriding |
144 |
| (b) |
½÷¥ú©ñ¹q¤Æªk Glow Discharge Nitriding |
144 |
| (c) |
¹q¾T Chromium Plating |
144 |
| (d) |
µw½è@¿i°ï¾Z Hard-facing Welding |
144 |
| 3.8 |
¼W¥[¨¾»G»k¯à¤O
Increasing Corrosion Resistance |
144 - 145 |
| 3.8.1 |
¹qÁá Electroplating |
144 |
| |
¥Õª÷¹qÁá Platinum Plating |
144 |
| |
¹qÜj/®ñ¤ÆÜg Pd O/T.o Coating |
144 |
| 3.8.2 |
¹q·¥³B²zÃC¦â Decorative Colour |
144 |
| 3.8.3 |
°ª·Å¤UªÅ®ð®ñ¤ÆªºÃC¦âÂàÅÜ
Interference of colour by Atmospheric Oxidation |
145 |
| 3.8.4 |
¹q·¥®ñ¤ÆªºÃC¦âÂàÅÜ
Interference of colour by Anode Oxidation |
145 |
| 3.8.5 |
¼W¥[ªo¼í©Ê
Lubricily |
145 |
| 3.9 |
¼ö³B²z
Heat Treatment |
146 |
| |
©T·»¤Î¦Ñ¤Æ³B²z
Solution Treatment & Aging (STA) |
|
| |
½Æ¦¡©T·»¤Î¦Ñ¤Æ³B²z
Duplex Solution Treatment & Aging (STSTA) |
|
| 3.10 |
¥h¥ÖDescaling |
146 |
| 3.11 |
Üg¤ÎÜg¦Xª÷ - ºØÃþ¡M¤u·~¼Ð·Ç¡M¤Æ¾Ç¦¨¥÷¡M¯SÂI¤Î¥Dn¥Î³~
Titanium - Type, Industrial Standard, Chemical Composition,
Characteristic & end usage of the most commonly used
Titanium & Titanium Alloy |
147 - 150 |
| 3.12 |
6Al-4V ELI & 6Al-4V Üg¦Xª÷Alloy |
151 - 157 |
| 3.12.1 |
¥Î³~¡B¦¨«~ºØÃþ¡B¤Æ¾Ç¦¨¥÷¤Î©T®æ²Õ´
End Usages, Available Forms and Chemical Composition |
|
| 3.12.2 |
¾÷±ñ©Ê¯à
Mechanical Properties |
152 - 153 |
| 3.12.3 |
ª«²z©Ê¯à
Physical Properties |
154 |
| 3.12.4 |
¨RÀ£
Fabrication |
155 |
| 3.12.5 |
¼ö³B²z
Heat Treatment |
156 |
| 3.12.6 |
³Ì¤p©}ºP¥b®|
Smallest Bending Radius (r) |
157 |
| 3.13 |
CP GR4 & GR2 Üg¦Xª÷ |
158 - 161 |
| 3.13.1 |
¾÷±ñ©Ê¯à
Mechanical Properties |
158 |
| 3.13.2 |
ª«²z©Ê¯à
Physical Properties |
159 |
| 3.13.3 |
¨RÀ£
Fabrication |
160 |
| 3.13.4 |
¼ö³B²z
Heat Treatment |
160 |
| 3.13.5 |
¨ä¥L§Þ³N¼Æ¾Ú
Technical Data |
161 |
| 3.14 |
°ê»Ú±`¥ÎªºÜg¤ÎÜg¦Xª÷¦¨«~ºØÃþ
Titanium & Titanium Alloy Specifications Available
Forms |
162 - 163 |
| |
¦¨«~ºØÃþ
Available Forms |
162 |
| |
³ü¯ë³W®æGeneral Specifications |
163 |
| |
¯Å§O
Grading |
163 |
| 3.15 |
x¨Æ¥Î³~ªºÜg
Titanium Alloy Military Use |
164 |
| |
ªK¤Î¿j
Bar and reforge Stock (MIL-T-9047G) |
164 |
| |
¤ùªO¤Î±aSheet-Strip-Plate (MIL-T-9046J) |
164 |
| 3.16 |
Üg§÷®Æªºªí±³B²z
Surface finish
|
165 |
| 3.17 |
Üg½u§÷
Titanium Wire and Shaped Wire |
165 - 169 |
| 3.17.1 |
¥Î³~
End Usages |
165 |
| 3.17.2 |
¥i¨ÑÀ³ªº¤Ø¤oSize Available |
165 |
| 3.17.3 |
¤Æ¾Ç¦¨¥÷¤Î¾÷±ñ©Ê¯à (¦^¤õª¬ºA)
Chemical Comparison and Mechanical Property(Annealed Condition) |
166 |
| 3.17.4 |
¶ê½uª½®|¤½®t
Tolerance of Round Wire Diameter |
166 |
| 3.17.5 |
«ó½u¤Î¥b¶ê½u¤§¤Ø½Xªí
Dimensional Profile of Flat and Half Round Wire |
167 |
| 3.17.6 |
º²²k¥ÎÜg½u¤Î´Î§÷¤§¤Æ¾Ç¦¨¥÷
Chemical Composition of Titanium Wire and Rods for Welding |
167 |
| 3.17.7 |
Üg¡B¤£ù׿û¡BÅK¤Î¾T¤§ª«²z©Ê¯à¤ñ¸û
Comparison of Physical Properties of Titanium, Stainless
Steel, Iron and Aluminum |
168 |
| 3.17.8 |
Üg¤§§Ü»G»k¯à¤O
Corrosion Resistance of Titanium |
168 |
| 3.17.9 |
«¶q(¤½¤ç)»Pªø«×(³ü¤½¤Ø)¹ï·Óªí
Weight in kg per one meter |
168 |
| 3.18 |
§N©Ô¥¿¤è©Î¤»¨¤ªK©Ò»Ý¤§¥À½u¶ê®|
Diameter of Mother Wire to Draw Hexagons or Square Wire |
169 - 170 |
| 3.19 |
«¶qpºâ¤èµ{¦¡
Weight Formula for Titanium |
171 - 172 |
| |
¶êªK
Rounds |
171 |
| |
¥¿¤èªK
Squares |
171 |
| |
ªø¤èªK
Rectangles |
171 |
| |
¤»¨¤ªK
Hexagons |
171 |
| |
¤K¨¤ªK
Octagons |
171 |
| |
¶ê»æ
Circles |
171 |
| |
¤ù
Sheet / Plate |
172 |
| |
¶ê³q(µLÁ_)
Round Seamless Tube |
172 |
| |
¥¿¤è³q(µLÁ_)
Square Seamless |
172 |
| |
ªø¤è³q(µLÁ_)
Rectangular (Seamless Tubing) |
172 |
| |
Àô§÷
Ring |
172 |
| 3.20 |
¨¾¤õ
Fire Preventive |
173 |
| |
¼W¥ZSupplement
|
|
| 4.0 |
ÂìNickel |
187 - 195 |
| 4.1 |
²¤¶Nickel in General |
187 |
| 4.2 |
²£¦aOrigin |
188 |
| 4.3 |
´£·ÒRefinery |
188 |
| 4.4 |
Â쨤 Nickel Pellet |
188 |
| 4.5 |
»X¤Dº¸ Monel |
189 |
| 4.6 |
±d¥v¹y Constantan |
189 |
| 4.7 |
Âì»Ì½u Nichrome Wire |
189 |
| 4.8 |
³zºÏ¦Xª÷(°ª¾ÉºÏ¦Xª÷) Permalloy |
189 |
| 4.9 |
¥Õ»É
Nickel Silver |
190 |
| 4.10 |
ÂìÅK¦Xª÷
Nickalloy |
190 |
| 4.11 |
Â쪺ª«²z©Ê½è©M¾÷±ñ©Ê½è
Physical and Mechanical Properties of Nickel |
190 |
| 4.12 |
°ªÂì¦Xª÷ High Nickel Alloys |
191 - 193 |
| 4.13 |
¤À¿ëÂì¦Xª÷ªºª«²z¤Î¤Æ¾Ç¤èªk
Indentification of Copper and Lead Alloy by Physical Test |
194 |
| 4.14 |
¹qÁá¥Î³~ªºÂì§÷
Electroplating Purpose Nickel |
195 |
| 5.0 |
¾N
Zinc |
199 - 208 |
| 5.1 |
²¤¶
Introduction |
199 |
| 5.2 |
¥Î³~
End Usages |
199 - 200 |
| (a) |
¥[½¤
Coating |
199 |
| (b) |
®ñ¤Æ¾N
Zinc Oxide |
199 |
| (c) |
À£Å±¾N¦Xª÷
Die-casting |
199 |
| (d) |
¦Xª÷¥Î³~
Alloying |
200 |
| (e) |
¾N¶W¶ì©Ê¦Xª÷
Super Plastic Alloy |
200 |
| (f) |
"¤Ñ±" (Roofing)¤Î"§¨¼h"
(Cladding)¥Î³~
Roofing and Cladding |
200 |
| (g) |
Àç¾i¥Î³~
Nutrition |
|
| 5.3 |
²£¦a
Origin |
200 |
| 5.4 |
´£·Ò
Refinery |
201 |
| 5.5 |
²£¶q
Production |
201 |
| 5.6 |
¾Nªº©Ê¯à
Properties of zinc |
201 |
| 5.7 |
À£Å±¾N¦Xª÷ Zinc Die-Casting Alloy |
|
| 5.8 |
¾N¦Xª÷¹q¦Àµ¥¯Å(¥Î©ó»s³y°®¹q¦À´ß)
Battery Grade Zinc Alloy (for making dry cell cans) |
202 |
| 5.9 |
¯S§O¾N¹q·¥ (¯Â«× > 99.995%)
Special Zinc Anodes > 99.995% Zn |
203 |
| 5.10 |
¯S¯Å¾N(¯Â«× > 99.995%)
Special Highgrade Zinc > 99.995% Zn |
204 |
| 5.11 |
«¤Oű³y¦Xª÷¾N12#
Gravity Casting Alloy Zinc No.12 |
204 |
| 5.12 |
«¤Oű³y¦Xª÷¾N12#
Gravity Casting Alloy Zinc No.12 |
|
| 5.13 |
¾Nªº¬ü°ê¼Ð·Ç
American Standard of Zinc |
206 |
| 5.14 |
¾Nªº¼Ú¬w¼Ð·Ç
European standard (EN) of Zinc |
206 |
| 5.15 |
¼Ú¬w¼Ð·ÇEN 11749³ü¯Å¾N¤Æ¾Ç¦¨¥÷
Zinc Chemical composition to EN 11749(% ps mm2) |
206 |
| 5.16 |
Û´°ª÷ÄÝ¥æ©ö©Ò¶R½æªº¾N
The Zinc trading in LME |
207 |
| 5.16.1 |
¯Â«× Purity |
207 |
| 5.16.2 |
¿õ - «ó¿õ¤Î¡§¬ÃÄ_(¤j)¿õ"
Ingots - slabs & Jumbo |
207 |
| 5.17 |
¹qÁ᪺¾N¡BÂì¡B»É¡B¿ü¥ÎÂì§÷®Æ¤Î¨ä¥Lª÷Äݧ÷®Æ
Nickel and other metal for Electroplating purpose |
207 - 208 |
| 6.0 |
ÂðCadmium |
209 |
| 6.1 |
A - ZÂð(§t³Ì¤p99.99%Âð)
Cadmium(99.99% Cd minimum) |
209 |
| 7.0 |
¹]
Lead |
210 - 212 |
| 7.1 |
²¤¶
Lead in General |
210 |
| 7.2 |
«I»k
Corrosion |
210 |
| |
ÆP©Ê«I»k
Alkali corrosion |
210 |
| |
¾®µ²«I»k
Condensation corrosion |
210 |
| |
¹]¹ï¾Tªº«I»k
Lead Attack Aluminum |
210 |
| 7.3 |
¹]ªº¥Î³~ Lead use in general |
211 |
| 7.4 |
¹q¦À¥Îªº¹] Battery use lead |
211 |
| 7.5 |
²£¶q¤Î²£¦a Source and Production |
211 |
| 7.6 |
¹]ªº©Ê¯àProperties of Lead |
212 |
| 7.7 |
¹]¤ù«p«×¥Î¤£¦PÃC¦â¨Ó¹º¤À
Color Marking on Different Thickness of Lead |
212 |
| 7.8 |
¹]¤Î¨ä¥Lª÷Äݪºº²ÂI¤ñ¸û
Melting Point of Lead and Other Materials |
212 |
| 8.0 |
¿ü
Tin |
213 - 214 |
| 8.1 |
General |
213 |
| 8.2 |
¿üªº¤Æ¾Ç¦¨¥÷(¤é¥»¼Ð·ÇJIS H2108)
Chemical Composition of Tin Metal to JIS H2108 |
213 |
| 8.3 |
¹qÁá¥Îªº¿ü
Tin for Electroplating |
213 |
| 8.4 |
¯Â¹]¡B¿ü¡B¾N¤§ª«²z©Ê½è
Physical Properties of Pure Lead, Tin and Zinc |
214 |
| 9.0 |
Áâ
Magnesium |
215 - 217 |
| 9.1 |
²¤¶
General |
215 |
| 9.2 |
Á⪺ª«²z©Ê½è
Physical properties of Magnesium |
215 |
| 9.3 |
Á⤧¾÷±ñ©Ê½è
Mechanical Properties of Magnesium |
216 |
| 9.4 |
ű³yÁâ¦Xª÷¤ÎÁë³yÁâ¦Xª÷
Casting Magnesium Alloy and Forging Magnesium Alloy |
216 |
| 9.5 |
Áâ¦Xª÷ű¥óªº³W®æ
Magnesium Casted Parts to JIS H5203 |
217 |
| 10.0 |
¶Àª÷
Gold |
218 - 220 |
| 10.1 |
²¤¶
General |
218 |
| 10.2 |
¶Àª÷¦Xª÷
Gold Alloy |
218 |
| 10.3 |
»]µo¤ÎÂq®g§÷®Æ
Evaporation |
218 - 219 |
| 10.4 |
±`¥Î¶Qª÷Äݦ¨¥÷ªí
Precious Metals & Alloy |
220 |
| 11.0 |
¥Õª÷(¹`)
Platinum |
221 |
| 12.0 |
@¼öÂì»Ì¨t¦Xª÷¤Î¤£ù׿û
Heat Resistant Alloys and Stainless Steel |
223 - 224 |
| 12.1 |
Âì»Ì¨t@¼ö¤£ù׿û¯S©Ê¡B¤Æ¾Ç¦¨¥÷¤Î¾Þ§@·Å«×
Heat - Resistance Stainless Steel |
223 |
| 12.2 |
»Ì¨t@¼ö¿û
Chrome Heat Resistance Stainless Steel |
224 |
| 12.3 |
Âì»Ì@¼ö¿û
Cr-Ni Heat Resistance Stainless Steel |
224 |
| 12.4 |
¶W@¼ö¿û
Superior Heat Resistance Steel |
224 |
| 12.5 |
§Ü¼ö¶W¯Å¦Xª÷
Heat Resistance Super Alloy |
224 |
| 13.0 |
³zºÏ¦Xª÷¤ÎºÏ©Ê¦Xª÷
Permalloy & Magnetic Alloy |
225 - 227 |
| 13.1 |
ºÏ¤O§÷®Æ - ²¤¶
Magnetic Materials - General |
225 |
| 13.1.1 |
³nºÏ
Soft Magnetic |
225 |
| 13.1.2 |
µwºÏ
Hard Magnetic |
225 |
| 13.1.3 |
ºÏ©Ê·PÀ³
Magnetic Induction |
225 |
| 13.1.4 |
³zºÏ«×
Magnetic Permeability |
225 |
| 13.1.5 |
ºÏ¤O(magnetic force)¤ÎºÏ³õ(magnetic field)¬O¦]ª«®Æ
ùتº¹q¤l(electron)¬¡°Ê¦Ó²£¥Íªº¡C |
226 |
| 13.2.1 |
³nºÏ©Ê¦Xª÷
Soft Magnetic Alloys |
226 |
| 13.2.2 |
¥Î³~
Usages |
226 |
| 13.2.3 |
¥bµwºÏ©Ê¦Xª÷
Semi - Hard Magnetic Alloy |
226 |
| 13.2.4 |
¥Î³~
Usages |
226 |
| 13.3 |
µwºÏ©Ê¦Xª÷
Hard Magnetic Alloys |
227 |
| 13.4 |
µwºÏ©Ê¦Xª÷¥Î³~
End Usages of Hard Magnetic Alloys |
227 |
| 13.5 |
ºÏP¦ùÁY¦Xª÷
Magnetostrictions Alloys |
227 |
| 13.6 |
¹q¤lºÞ¤Î¥b¾ÉÅé¦Xª÷
Alloys for semi - Conductors & Electronic Tubes |
|
| 13.7 |
¹q¤lºÞ¤Î¥b¾ÉÅé¦Xª÷¥Î³~
Alloys for Semi - Conductors & Electronic Tubes Use |
227 |
| 13.8 |
¹q¤lºÞ¤Î¥b¾ÉÅé¦Xª÷¤Æ¾Ç¦¨¥÷¤Î©Ê¯à
Alloys for Semi - Conductors & Electronic Tubes -
Chemical Composition & Characteristic |
228 |
| 13.9 |
§Ü»G»k¤Î@¼ö¼u®¦Xª÷
Anti - Corrosion and Heat - Resistant Spring Alloys |
228 |
| 13.10 |
¥Î³~
End Usages |
228 |
| 13.11 |
§Ü»G»k¤Î@¼ö¼u®¦Xª÷µw«×¡B¤Æ¾Ç¦¨¥÷¡B©Ô¤Oªí
Anti - Corrosion and Heat -Resistant Spring Alloys |
228 |
| 14.0 |
Âù¼hª÷ÄÝ(«í·Åª÷ÄÝ)
Bi-Metal(Thermostat Metal) |
229 - 231 |
| |
µ²ºc
Structure |
229 |
| |
¥Î³~
End Usages |
229 |
| 14.1 |
Âù¼hª÷ÄݤƾǦ¨¥÷¤Î¿±µÈ¨t¼Æ
Bi-Metal, Chemical Composition and Expansion |
230 |
| 14.2 |
¥i¨ÑÀ³¤Ø¤oAvailable sizes |
231 |
| 14.3 |
À³¥ÎApplications |
231 |
| 15.0 |
§Îª¬°O¾Ð¦Xª÷¤Î°ª¼u©Ê¦Xª÷
Shape Memory Alloy & Super Elastic Alloy |
232 - 236 |
| 15.1 |
°O¾Ð¦Xª÷ªºì²z
Memory Alloy |
232 |
| 15.2 |
¯SÂI
Features |
232 |
| 15.3 |
°O¾Ð¤Î°ª¼u©Ê¯S©Ê
Memory Characteristics & Super Elastic Characteristics |
233 |
| 15.4 |
¤ñ¸û°O¾Ð¦Xª÷¤Î¿ûªº¼u©ÊÀ³ÅÜ·¥¤Î¦^´_쪬¯à¤O
Comparision of Memory Alloy & Steel |
233 |
| 15.5 |
°O¾Ðª÷Äݪº¤Æ¾Ç¦¨¥÷¤Î§Îª¬¦^´_·Å«×
Chemical composition and shape-recovery temperature of
shape memory alloy |
233 |
| 15.6 |
°O¾Ð¦Xª÷ªºª«²z©Ê¯à¤Î"ÂìÜg"¡B»É¤Î¤£ù׿ûªº¤ñ¸û
Physical properties of shape memory alloys in comparison
with titanium, copper and stainless steel |
234 |
| 15.7 |
¾÷±ñ©Ê¯à
Mechanical properties |
235 |
| 15.8 |
¥Î³~
End usage examples |
235 |
| |
»]ÃH©@°Ø³ý¬¡¶ë
Control value of evaporated coffee maker |
|
| |
°O¾ÐÃö¸`(¾÷±ñÃö¸`)
Joints of Micro-robot |
|
| |
¹B¿é¨t²Î¿é¹qºÊ¹î
Heat senser for power supply cable of mass transit system |
236 |
| |
²´Ãè
eye glasses |
|
| |
ªA¸Ë¥Î«~
Garment Accessories |
|
| |
·Å«×±±¨î Temperature Control Device |
236 |
| |
·Å«Çµ¡¤á¶}Ãö¨î Greenhouse window switch |
|
| |
ÂåÃĥγ~ Medical appliance |
|
| |
¨ä¥L Others |
|
| 16.0 |
Âë
Tungsten |
237 |
| 16.1 |
Âë¦Xª÷
Tungsten Alloy |
237 |
| 17.0 |
¿ø
Manganese |
238 |
| 18.0 |
»Ì
Chromium |
239 |
| 19.0 |
à»
Molybdenum |
239 |
| 20.0 |
¹W
Cobalt |
239 |
| 21.0 |
³«
Vanadium |
239 |
| 22.0 |
¾O
Antimeny |
239 |
| 23.0 |
¹c
Bismuth |
239 |
| 24.0 |
¤ô»È(¨E)
Mercury |
240 |
| 25.0 |
¾O¡B¹c¡BÂð¡B»Ì¡B¹W¡B¶Àª÷¡B¿ø¡B¤ô»È¡B໡B¥Õª÷¡BÂë¡B³« µ¥ª÷Äݤ¸¯Àªº©Ê¯à
Metal Elements and their Properties |
241 |