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¿û¤ù¤Î½u ¡V ¥Ø¿ý
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| 1.0 | ª«®Æ¬ì¾Ç Material Science |
3 ¡V 8 |
| 1.1 | ª«®Æ¬ì¾Ç©w¸qMaterial Science Definition | 3 |
| (a) | ¥[¤u©Ê¯à Machinability |
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| (b) | ±j«× Strength |
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| (c) | §Ü»G»k¤Î@¥Î Corrosion & resistance durability | |
| (d) | ª÷ÄݯS©Ê Special metallic features |
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| (e) | §Ü±Ó·P¤ÎÀô¹Ò«OÅ@ Allergic, re-cycling & environmental protection |
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| 1.2 | ¤Æ¾Ç¤¸¯À Chemical element |
4 |
| 1.2.1 | ¤¸¯Àªºì¤l§Ç¼Æ Atom of Elements |
4 |
| 1.2.2 | ì¤l¤Î©TÅ骫½è Atom and solid material |
4 |
| 1.2.3 | ì¤lªº²Õ¦¨¡B¤j¤p¡BÅé¿n©M³æ¦ì¹Ïªí The size, mass, charge of an atom, and is particles (Pronton,Nentron and Electron) |
4 - 5 |
| 1.2.4 | ì¤lªº²Õ´¹Ï Atom Constitutes |
6 |
| 1.2.5 | ¶g´Áªí Periodic Table |
7 |
| 1.2.6 | ì¤lÁäµ² Atom Bonding |
8 |
| 2.0 | ª÷ÄÝ»P¦Xª÷ Metal and Alloy | 11 |
| 2.1 | ÅK¤Î«DÅKª÷ÄÝ Ferrous & Non Ferrous Metal |
11 |
| 2.2 | ª÷Äݪº¯S©Ê Features of Metal |
11 |
| 3.0 | ´¹Åéµ²ºc Crystal Pattern | 12 - 15 |
| 3.1 | ´¹Åéµ²ºc¡A©w¦V®æ¤l¤Î³æ¦ì´¹®æ Crystal structure, Space lattice & Unit cell |
12 |
| 3.2 | X½uµ²´¹¤ÀªRªk X ¡V ray crystal analyics method |
12 |
| 3.3 | ª÷Äݵ²´¹®æ¤l Metal space lattice | 12 - 13 |
| 3.4 | ®æ¤l±`¼Æ Lattice constant | 13 ¡V 15 |
| 4.0 | ¦Ì°Ç«ü¼Æ Mill's Index | 16 |
| 5.0 | ª÷¬Û¤Î¬Û«ß Metal Phase and Phase Rule | 17 |
| 5.1 | ©Tº²Åé Solid solution | 17 |
| 5.2 | ¸m´««¬©Tº²Åé Substitutional type solid solution | 17 |
| 5.3 | ´¡¤J«¬©Tº²Åé Interstital solid solution | 17 |
| 6.0 | ª÷Äݶ¡¤Æª« Intermetallic compound | 18 |
| 7.0 | ª÷ÄÝÅܺA Transformation |
18 |
| ÅܺAÂI Transformation Point |
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| ºÏ©ÊÅܺA Magnetic Transformation |
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| ¦P¯ÀÅܺA Allotropic Transformation |
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| 8.0 | ¦Xª÷¥¿Åª¬ºA Thermal Equilibrium |
18 |
| 9.0 | ¬Û«ß Phase Rule |
18 - 19 |
| 9.1 | ¦Û¥Ñ«× Degree of freedom |
18 ¡V 19 |
| 9.2 | Á{¬É·Å«× Critical temperture |
19 |
| 10.0 | ¦@´¹ Eutectic |
19 |
| ¥]´¹·Å«× Peritectic Temperature | ||
| ¥]´¹¤ÏÀ³ Peritectic Reaction | ||
| ¥]´¹¦Xª÷ Peritectic Alloy | ||
| ¨È¦@´¹Åé Hypoeutetic Alloy | ||
| ¹L¦@´¹Åé Hyper-ectectic Alloy | ||
| 11.0 | ª÷Äݪº¬Û¿Ä¡B¬Û¿Ä·Å«×¡B´¹Åé¤ÏÀ³¤Î¦Xª÷¦b¦@´¹¦Xª÷¡B©Tº²ìצ@´¹¦Xª÷¤Î°¾´¹¤ÏÀ³ªº¤ñ¸û Equilibrium Comparision |
20 |
| 12.0 | ª÷Äݶì©Ê Plastic Deformation | 21 |
| ·Æ°Ê± Slip Plan | ||
| ·îÅÜ Distortion | ||
| µw¤Æ Work Hardening | ||
| 13.0 | °h¤õ Annealing | 21 |
| ¦^´_¬X³n Crystal Recovery | ||
| ¦Aµ²´¹ Recrystallization | ||
| 14.0 | ª÷Äݧ÷®Æªº©Ê¯à¤Î¸ÕÅç Properties & testing of metal |
25 - 28 |
| 14.1 | ¤Æ¾Ç©Ê¯à Chemical Properties |
25 |
| 14.2 | ª«²z©Ê¯à Physical Properties |
25 |
| (a) | ÃC¦â Colour |
25 |
| (b) | ºÏ©Ê Magnetisum |
25 |
| (c) | ¤ñ¹qªý Specific resistivity & specific resistance |
25 |
| (d) | ¤ñ« Specific gravity & specific density |
26 |
| (e) | ¤ñ¼ö Specific Heat |
26 |
| (f) |
¼ö¿±µÈ¨t¼Æ |
26 |
| (g) | ¾É¼ö«× Heat conductivity |
27 |
| 14.3 | ¾÷±ñ©Ê¯à Mechanical properties | 27 |
| (a) | ©}ªA±j«×(°¥ñ±j«×) (Yield strangth) | 27 |
| (b) | ¼u©Ê«×¡B¶§¤ó¼u©Ê¨t¼Æ¤Î©}ªAÂI elastic limit, Yeung's module of elasticity to yield point |
27 |
| (c) | ¦ùªø«× Elongation |
28 |
| (d) | Â_±ÁY²v Reduction of area |
28 |
| 15.0 | ª÷Äݧ÷®Æªº¸ÕÅç¤èªk The Method of Metal inspection |
29 - 31 |
| 15.1 | ¤£¯}ÃaÀËÅç Non ¡V destructive inspections |
29 |
| (a) | º¯³z±´¶Ëªk Penetrate inspection |
29 |
| (b) | ºÏ¯»±´¶Ëªk Magnetic particle inspection |
29 |
| (c) | ©ñ®g½u±´¶Ëªk Radiographic inspection |
29 |
| (d) | ¶WÁnªi±´¶Ëªk Ultrasonic inspection |
29 |
| (e) | Åã·LÆ[¹îªk Microscopic inspection |
29 |
| 15.2 | ¯}ÃaªºÀËÅç Destructive Inspection |
30 |
| 15.3 | ½ÄÀ»´ú¸Õ Impact Test |
30 |
| 15.4 | ¯h³Ò´ú¸Õ Fatigue Test |
30 |
| 15.5 | ¼çÅÜ´ú¸Õ Creep Test | 30 - 31 |
| ¼çÅܱj«× Creeps Strength |
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| ²Ä³ü¼çÅÜ´Á Primary Creep |
||
| ²Ä¤G¼çÅÜ´Á Secondary Creep |
||
| ²Ä¤T¼çÅÜ´Á Tertiary Creep |
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| 16.0 | ¥Dnª÷Äݤ¸¯À¤§ª«²z©Ê½è Physical properties of major Metal Elements |
32 ¡V 33 |
| 17.0 | ¤u·~¼Ð·Ç¤Î³W®æ ¡V ÅK¤Î«DÅKª÷ÄÝ Industrial Standard ¡V Ferrous & Non ¡V ferrous Metal |
34 - 36 |
²Ä¤G³¹ ºÏ¾Ç
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| 18.0 | ºÏ¤O Magnetic | 40 - 42 |
| 18.1 | ²¤¶ General | 40 |
| 18.1.1 | ³nºÏ Soft Magnetic | |
| 18.1.2 | µwºÏ Hard Magnetic | |
| 18.2 | ºÏ³õ Magnetic Field | 40 ¡V 41 |
| 18.3 | ºÏ©Ê·PÀ³ Magnetic Induction | 41 |
| 18.4 | ³zºÏ«× Magnetic Permeability | 41 |
| 18.5 | ºÏ¤Æ²v Magnetic Susceptibility (Xm) | 41 ¡V 42 |
| 18.6 | ºÏ¤O(Magnetic Force)¤ÎºÏ³õ(Magnetic Field)¬O¦]ª«®Æùتº¹q¤l(Electron)¬¡°Ê¦Ó²£¥Í | 42 |
| 19.0 | §ÜºÏÅé¡B¶¶ºÏÅé¡BÅKºÏÅé¡B¤ÏÅKºÏÅé¤Î¨ÈÅKºÏÅé Diamagnetism, Paramagnetic, Ferromagnetism,Antiferromagnetism & Ferrimagnetism |
43 - 45 |
| 19.1 | §ÜºÏÅé Diamagnetism | 43 |
| ºÏ°¸·¥¤l Dipole | ||
| tºÏ¤O®ÄÀ³ Negative effect | ||
| 19.2 | ¶¶ºÏÅé Paramagnetic | 43 |
| ¥¿ºÏ¤Æ²v Positive magnetic susceptibility | 43 | |
| 19.3 | ÅKºÏÅé Ferromagnetism | 43 |
| ÂàÅܤ¸¯À Transition element | ||
| ¥æ´«¯à¶q Positive energy exchange | ||
| ¥~»ù¹q¤l Outer valence electrons | ||
| ¤Æ¾Çµ²¦X Chemical bond | ||
| ¦Ûµo¤WºÏ Spontaneous magnetization | ||
| ºÏÃ¥ Magnetic domain | ||
| ¬Û¤Ï±ÛÂà Opposite span | ||
| 19.4 | ¤ñ¸û§ÜºÏÅé¡B¶¶ºÏÅé¤ÎÅKºÏÅé Comparison of Diamagnetism, Paramagnetic & Ferromagnetism |
44 |
| 19.5 | ¤ÏÅKºÏÅé Antiferromagnetism | 45 |
| 19.6 | ¨ÈÅKºÏÅé Ferrimagnetism | 45 |
| ºÏ¯x magnetic moment | ||
| ²bºÏ¯x Net magnetic moment | ||
²Ä¤T³¹ ÅK¿û¤Î¯S®í¿û
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| 21.0 | ¿ûÅK Steel |
49 |
| 21.1 | ¿ûÅKªº¥Dn¦¨¥÷ The major element of steel |
49 |
| 21.2 | ¿ûÅK¥Î"ºÒ"¤§§t¶q¨Ó¤ÀÃþ Classification of Steel according to Carbon contents |
49 |
| 21.3 | ÅK¬Û Steel Phases |
49 |
| 21.4 | ¿ûÅKªº¦WºÙ Name of steel |
49 |
| ¯ÂÅKÅé Ferrite |
49 | |
| º¯ºÒÅé Cementitle |
49 | |
| ¶ø¤óÅé Austenite | ||
| 22.0 | ¯]¥úÅé¤Î¦@ÄÀ¿û Pearlite &Eutectoid |
50 |
| 22.1 | ¶ø¤óÅéºÒ¿û Austenite Carbon Steel |
|
| ³æ¬Ûª÷ÄÝ Single Phase Metal |
||
| ¦@ÄÀÅܺA Eutectoid Transformation |
||
| ¯]¥úÅé Pearlite | ||
| 22.2 |
¨ÈÅKÄÀÅé |
50 |
| ªìÄÀ¯ÂÅKÅé Pro-entectoid ferrite | ||
| 22.3 | ¹L¦@ÄÀ¿û Hype-eutectoid | 50 |
| 22.4 | ¯]¥úÅé Pearlite |
50 |
| ²Ê¯]¥úÅé Coarse pearlite | ||
| ¤¤¯]¥úÅé Medium pearlite | ||
| ¥®¯]¥úÅé Fine pearlite | ||
| 22.5 |
ºÏ©ÊÅܺAÂI Magnetic Transformation |
50 |
| 23.0 | ¿ûÅKªº»s³y Manufacturing of Steel |
51 |
| ³sÄòű³yªk Continuous casting process | ||
| ¹qÄl Electric furnace | ||
| §¡¼öÄl Soaking pit | ||
| ¥þÀR¿û Killed steel | ||
| ¥bÀR¿û Semi-killed steel | ||
| ªmÄË¿û(¥¼²b¿û) Rimmed steel | ||
| 24.0 | ¿ûÅK¥Í²£¬yµ{ Steel Production Flow Chart | 52 |
| 25.0 | ¿û§÷ªºº²Å±¡BÁë³y¡BÀ½À£¤Î©µªî The Casting, Fogging, Extrusion, Rolling & Steel |
53 |
| (a) | º²Å± Casting | |
| (b) | Áë³y Fogging | |
| (c) | À½À£ Extrusion | |
| (d) | ©µªî Rolling | |
| (e) | ¨R°Å Drawing & stamping | |
| 26.0 | ¯S®í¿û Special Steel | 57 - 60 |
| 26.1 | ²¤¶ General |
57 |
| 26.2 | ¯S®í¿û¥Hì¯À¤ÀÃþ Classification of Special Steel according to Element |
57 |
| 26.3 | ¯S®í¿û¥H¥Î³~¨Ó¤ÀÃþ Classification of Special Steel according to End Usage |
58 |
| 26.4 | ©ö¨®(§Ö«d)¤£ù׿û Free Cutting Stainless Steel |
59 |
| 26.5 | §t¹]©ö¨®¿û Leaded Free Cutting Steel |
59 |
| 26.6 | §t²¸©ö¨®¿û Sulphuric Free Cutting Steel |
59 |
| 26.7 | µw¤Æ©Ê¯à Hardenability |
59 ¡V 60 |
| 27.0 | ¿ûªº¯Ü©Ê Brittleness of Steel |
60 |
| 27.1 | §C·Å¯Ü©Ê Cold brittleness | 60 |
| 27.2 | ¦^¤õ¯Ü©Ê Temper brittleness | 60 |
| 28.0 | ¤é¤u¼Ð·Ç¤Uªº¯S®í¿û§÷ Specail Steel according to JIS Standard |
61 - 65 |
| 28.1 | »Ì¿û ¡V ¤é¤u¼Ð·Ç JIS G4104 Chrome steel to JIS G4104 |
61 |
| 28.2 | »Ì໿û¿û§÷ ¡V ¤é¤u¼Ð·Ç G4105 62 Chrome Molybdenum steel to JIS G4105 |
|
| 28.3 | Âì»Ì ¡V ¤é¤u¼Ð·Ç G4102 63 Chrome Nickel steel to JIS G4102 |
|
| 28.4 | Âì»Ì໿û ¡V ¤é¤u¼Ð·Ç G4103 64 Nickel, Chrome & Molybdenum Steel to JIS G4103 |
|
| 28.5 | °ª¿ø¿ûű ¡V ¤é¤u¼Ð·Ç High manganese steel to JIS standard |
65 |
| ²Ä¥|³¹ ¤ù¤ÎªO§÷ Chapter Four-Strip, Steel & Plate |
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| 31.0 | §NñF§CºÒ¿û¤ù(Âù³æ¥ú¤ù)(¤é¤u¼Ð·Ç JIS G3141) 73 - 95 Cold Rolled (Low carbon) Steel Strip (to JIS G 3141) |
73 |
| 31.1 | ²¤¶ General |
|
| 31.2 | ¬ü§÷¸Õ¼Ð·Çªº§NñF§CºÒ¿û¤ù Cold Rolled Steel Strip American Standard ¡V American Society for testing and materials (ASTM) |
73 |
| 31.3 | ¤é¤u¼Ð·ÇJIS G3141§NñF§CºÒ¿û¤ù(Âù³æ¥ú¤ù)ªº½s¸¹²LÄÀ Decoding of cold rolled(Low carbon)steel strip JIS G3141 |
74 |
| 31.3.1 | §÷®Æªº¥[¤u©Ê¯à Drawing abillity | 74 |
| 31.3.2 | µw«× Hardness | 75 |
| 31.3.3 | ªí±³B²z Surface finish | 75 |
| 31.4 | §NñF¿û¸i¤ù¤Î±i¤ù»s§@¬yµ{¹Ïªí Production flow chart cold rolled steel coil sheet |
76 - 77 |
| 31.5 | §NñF¿û¸i¤ù¤Î±i¤ùªº¹qÁá©M¦L¨ê¤èªk Cold rolled steel coil & sheet electro-plating & painting method |
78 |
| 31.6 | §NñF(§CºÒ)¿û¤ùªº¤ÀÃþ¥Î¡B³~¡B¤u·~¼Ð·Ç¡B«~½è¡B¥[¼öª¬ºA¤Îµw«×ªí End usages, industrial standard, quality, condition and hardness of cold rolled steel strip |
79 |
| 31.7 | µw«×¤Î©Ô¤O Hardness & Tensile strength test | 81 |
| 31.8 | ©Ô¦ù´ú¸Õ(¶¶¯¾´ú¸Õ) Elongation test |
81 |
| 31.9 | ªM¬ð´ú¸Õ(«p«×: 0.4¤½Âç¦Ü1.6¤½Âç¡A·Ç½T¦Ü0.1¤½Âç 3Ó¸Õ¤ù¥§¡¼Æ) Erichsen test (Thickness: 0.4mm to 1.6mm, figure round up to 0.1mm) |
82 |
| 31.10 | ¦±±(°²¦±²v) Camber |
82 |
| 31.11 | «p«×¤ÎÁï«×¤½®t Tolerance on Thickness & Width | 82 |
| 31.12 | ¥©Z«×(Áï«×¤j©ó500¤½Âç¡A¼Ð·Ç¦^¤õ) Flatness (width>500mm, temper: standard) |
83 |
| 31.13 | Ås«× Camber | 83 |
| 31.14 | §NñF¿û¤ùÀx¦s»P³B²z´£¥Ü General advice on handling & storage of cold rolled steel coil & sheet |
84 |
| 31.14.1 | ¨¾¤î¥Íù× Rust Protection |
84 |
| 31.14.2 | ¥Íù׳t«×ªí Speed of rusting |
84 |
| 31.14.3 | ²k±µ Welding | 85 |
| ®ð²k Gas Welding | ||
| ®I©·²k Submerged-arc Welding | ||
| ¹qªý²k Resistance Welding | ||
| 31.15 | §NñF¿û¤ù(©Ô¤O: 30-32¤½¤ç/¥¤è¦Ì)¦b¨S¦³ªí±³B²zª¬ºA¤Uªº²k±µª¬ªp Spot welding conditions for bared (free from paint, oxides etc) Cold rolled mild steel sheets(T/S:30-32 Kgf/ £g m2) |
86 |
| 31.16 | ®É¶¡®ÄÀ³(¦Ñ¤Æ)¤Î©Ô¦ùÀ³ÅÜ Aging & Stretcher Strains |
87 |
| 31.17 | ¤é¤u¼Ð·Ç(JIS G3141)§NñF¿û¤ù¤Æ¾Ç¦¨¥÷ Chemical composition ¡V cold rolled steel sheet to JIS G3141 |
88 |
| 31.18 | §NñF¿û¤ùªº"²z½×«¶q"pºâ¤èµ{¦¡ Cold Rolled Steel Sheet ¡V Theoretical mass |
89 |
| 31.19 | ¤é¤u¼Ð·Ç(JIS G3141)§NñF¿û¤ù«¶q¦Cªí Mass of Cold-Rolled Steel Sheet to JIS G3141 |
90 |
| 31.20 | §NñF¿û¤ùq³f»Ýª¾ Ordering of cold rolled steel strip/sheet |
92 - 93 |
| 31.21 | ¨ä¥L¤é¤u¼Ð·Ç§Nªî¿û¤ù(¥Î³~¤Î½s¸¹) JIS standard & application of other cold Rolled Special Steel |
95 |
| 32.0 | ¹qÁá¾N¿û¤ù©Î¹q¸Ñ¿û¤ù Electro-galvanized Steel Sheet/Electrolytic Zinc Coated Steel Sheet |
101 - 114 |
| 32.1 | ²¤¶ General |
101 |
| 32.2 | ¹q¸Ñ/¹qÁá¾N¤j¤j¼W±j¿û¤ùªº¨¾ùׯà¤O Galvanic Action improving Weather & Corrosion Resistance of the Base Steel Sheet |
101 |
| 32.3 | ¤Wº£¯à¤O Paint Adhesion | 101 |
| 32.4 | ¹qÁá¾N¿û¤ùªº²k±µ Welding of Electro-galvanized steel sheet |
102 |
| 32.5 | ÂI²k Spot welding |
102 |
| 32.6 | ºu²k Seam welding |
103 |
| 32.7 | ¹qÁá¾N(¹q¸Ñ)¿û¤ù Electro-galvanized Steel Sheet |
105 |
| ¥Í²£¬yµ{ Production Flow Chart |
||
| 32.8 | ±`¥ÎªºÁá¾N¿û¤ù(¹q¸Ñ¤ù)ªº°ò¼hª÷ÄÝ¡B¥Î³~¡B¤é¤u¼Ð·Ç¡B¬ü§÷¼Ð·Ç¤Î¤@¯ë«p«× Base metal, application, JIS & ASTM standard, and Normal thickness of galvanized steel sheet |
106 - 107 |
| 32.9 | ¾NÁá¼h½è¶q Zinc Coating Mass | 108 |
| 32.10 | ªí±³B²z Surface Treatment | 109 |
| 32.11 | §Nªî¿û¤ù Cold-Rolled Steel Sheet/Strip | 110 |
| 32.12 | ¼öªî¿û¤ù Hot-Rolled Sheet/Strip | 111 |
| 32.13 | ¹q¸Ñ§Nªî¿û¤ù«p«×¤½®t Thickness Tolerance of Electrolytic Cold-rolled sheet |
112 |
| 32.14 | ¼öªî¿û¤ù«p«×¤½®t Thickness Tolerance of Hot-rolled sheet |
113 |
| 32.15 | §Nªî©Î¼öªî¿û¤ùÁï«×¤½®t Width Tolerance of Cold or Hot-rolled sheet |
113 |
| 32.16 | ªø«×¤½®t Length Tolerance | 113 |
| 32.17 | ²z½×½è¶q Theoretical Mass | 114 |
| 32.18 | ¾NÁá¼h½è¶q(¨âÓ¬Û¦P¾NÁá¼h«p«×) Mass Calculation of coating (For equal coating)/MM |
114 |
| 32.19 | ¾NÁá¼h½è¶q(¨âÓ¤£¦P¾NÁá¼h«p«×) Mass Calculation of coating (For differential coating)/MM |
114 |
| 33.0 | Áá¿üÁ¡ÅK¤ù(¥ÕÅK¥Ö/°¨¤fÅK) (¤é¤u¼Ð·Ç JIS G3303) | 119 - 125 |
| 33.1 | ²¤¶ General |
119 |
| 33.2 | Áá¿üÁ¡ÅK¤ùªººc³y Construction of Electrolytic Tinplate |
119 |
| 33.3 | Áá¿üÁ¡¿û¤ù(¥ÕÅK¥Ö/°¨¤éÅK)»s³y¹Lµ{ Production Process of Electrolytic Tinplate |
120 |
| 33.4 | ¿ü¼h½è¶q Mass of Tin Coating (JIS G3303-1987) |
121 |
| 33.4.1 | ¨â±§¡µ¥¿ü¼h Both Side Equally Coated Mass |
121 |
| 33.4.2 | ¨â±¤£§¡µ¥¿ü¼h Both Side Different Thickness Coated Mass |
121 |
| 33.5 | ¯Å§O¡B¹qÁá¤èªk¡BÁá¼h½è¶q¤Î±`¥ÎºÙ¸¹ Grade, Plating type, Designation of Coating Mass & Common Coating Mass |
121 |
| 33.6 | Áá¼h½è¶q¼Ð°O Markings & Designations of Differential Coatings |
122 |
| 33.7 | µw«× Hardness | 122 |
| 33.7.1 | ³æ¬ÛªîÀ£Áá¿üÁ¡ÅK¤ù(¥ÕÅK¥Ö/°¨¤fÅK) Single-Reduced Tinplate |
122 |
| 33.8 | Âù¬ÛÁÓÀ£Áá¿üÁ¡¿û¤ù(°¨¤fÅK/¥ÕÅK¥Ö) Dual-Reduction Tinplate |
123 |
| 33.9 | ¿ûªººØÃþ Type of Steel | 123 |
| 33.10 | ªí±³B²z Surface Finish | 124 |
| 33.11 | ±`¥Î¤Ø¤o Commonly Used Size | 125 |
| 34.0 | ¹q¾¹¥Îª¿ [Öº] ¿û¤ù Electrical Steel Sheet | 131 - 148 |
| 34.1 | ²¤¶ General | 132 ¡V 133 |
| 34.1.1 | ³nºÏ§÷®Æ Soft Magnetic Material | 132 |
| 34.1.2 | º¢«á¦^½u Narrow Hystersis | 132 |
| 34.1.3 | ÁB¹xºÏ¤O Coercive Force | 132 |
| 34.1.4 | µwºÏ§÷®Æ Hard Magnetic Material | 132 |
| 34.1.5 | ³Ì¤j¯à¶q¿n Maximum Energy Product | 133 |
| 34.1.6 | Öº§t¶q¹ï¹q¾¹¥Îªº§CºÒ¿û¤ùªº³Ì¤j¦n³B The Advantage of Using Silicon low Carbon Steel |
133 |
| 34.1.7 | ´¹²É¨ú¦V(Grain-Oriented)¤Î«D´¹²É¨ú¦V(Non-Oriented) Grain Oriented & Non-Oriented |
133 |
| 34.2 | ¹q¾¹¥Îª¿ [Öº] ¿û¤ùªº³Ì²×¥Î³~¤Î³W®æ End Usage and Designations of Electrical Steel Strip |
134 |
| 34.3 | ¹q¾¹¥Îªºª¿ [Öº] ¿û¤ù¤§¤ÀÃþ Classification of Silicon Steel Sheet for Electrical Use |
135 |
| 34.4 | ¹q¾¹¥Î¿û¤ùªºµ´½t¶î¼h Performance of Surface Insulation of Electrical Steel Sheets |
136 |
| 34.5 | ´¹²É¨ú¦V¹q¾¹¥Îª¿¿û¤ù¥Dn¤u·~¼Ð·Ç International Standard ¡V Grain-Oriented Electrical Steel Silicon Steel Sheet for Electrical Use |
137 |
| 34.5.1 | ´¹²É¨ú¦V¹q¾¹¥Îª¿¿û¤ù Grain-Oriented Electrical Steel | 137 |
| 34.6 | ´¹²É¨ú¦V¡A©w¨ú¦Vªä¿û¤ù¤Î°ª¸N©w¨ú¦Vªä¿û¤ù¤§ºÏ¤O©Ê¯à¤Î§¨¼h¨t¼Æ(¤é¤u¼Ð·Ç¤Î¬ü§÷¼Ð·Ç) Magnetic Properties and Lamination Factor of SI-ORIENT-CORE& SI-ORIENT-CORE-HI B Electrical Steel Strip (JIS and AISI Standard) |
138 - 139 |
| 34.7 | °h¤õAnnealing | 140 |
| 34.7.1 | ¹q¾¹¥Î¿û¤ù¥Î®a»Ý¦Û¦æÀ³¤O°h¤õì¦] Annealing of the Electrical Steel Sheet |
140 |
| 34.7.2 | °h¤õ®Éª`·N¨Æ¶µ Annealing Precautionary | 140 |
| (a) | ºÒ¦Ã¬V Prevent Carbon Contamination | 141 |
| (b) | ¼ö¤OÀ³¥ý±q¤u¥óÃä½t³z¤J Heat from the Laminated Stacks Edges |
141 |
| (c) | ´£¨¾¹L¥÷®ñ¤Æ No Excessive Oxidation |
141 |
| (d) | À³¤O°h¤õ·Å«× Stress ¡Vrelieving Annealing Temperature |
141 |
| 34.8 | ´¹²É¨ú¦V¹q¾¹¥Îª¿ [Öº] ¿û¤ù ¡V °ª¸N(HI-B)©w¨ú¦Vªä¿û¤ù¤Î©w¨ú¦Vªä¿û¤ù¤§¾÷±ñ©Ê¯à¤Î§¨¼h¨t¼Æ Mechanical Properties and Lamination Factors of SI-ORIENT-CORE-HI-B and SI-ORIENT-CORE Grain Orient Electrical Steel Sheets |
142 |
| 34.9 | ´¹²É¨ú¦V¹q¾¹¥Îª¿ [Öº] ¿û;¤ù ¡V °ª¸N§C²¸(LS)©w¨ú¦V ¿û¤ù¤§ºÏ¤O¤Î¹q¤O©Ê¯à Magnetic and Electrical Properties of SI-ORIENT-CORE-HI-B-LS |
142 |
| 34.10 | ´¹²É¨ú¦V¹q¾¹¥Îª¿ [Öº] ¿û¤ù ¡V °ª¸N§C²¸(LS) ©w¨ú¦V¿û¤ù¤§¾÷±ñ©Ê¯à¤Î§¨¼h¨t¼Æ Mechanical Properties and Lamination Factors of SI-ORIENT-CORE-HI-B-LS |
143 |
| 34.11 | ´¹²É¨ú¦V¹q¾¹¥Îª¿(Öº)¿û¤ù-°ª¸N(HI-B)©w¨ú¦V ªä¿û¤ù¡A©w¨ú¦Vªä¿û¤ù¤Î°ª¸N§C²¸(LS)©w¨ú¦Vªä¿û¤ù¤§«p«×¤ÎÁï«×¤½®t Physical Tolerance of SI-ORIENT-CORE-HI-B, SI-ORIENT-CORE, & SI-CORE-HI-B-LS Grain Oriented Electrical Steel Sheets |
144 |
| 34.12 | ´¹²É¨ú¦V¹q¾¹¥Îª¿(Öº)¿û¤ù ¡V °ª¸N(HI-B)©w¨ú¦V ªä¿û¤ù¡A©w¨ú¦Vªä¿û¤ù¤Î°ª¸N§C²¸(LS)©w¨ú¦Vªä¿û¤ù¤§¼Ð·Ç¤Ø¤o¤Î¥]¸Ë Standard Forms and Size of SI-ORIENT-CORE-HI-B,SI-CORE, & SI-ORIENT-CORE-HI-B-LS Grain- Oriented Electrical Steel Sheets |
145 |
| 34.13 | µ´½tªí± Surface Insulation | 145 |
| 34.14 | «D´¹²É¨ú¦V¹q¤O¥Î¿û¤ùªº¹q¤O¡BºÏ¤O¡B¾÷±ñ©Ê¯à ¤Î§¨¼h¨t¼Æ Lamination Factors of Electrical, Magnetic & Mechanical Non-Grain Oriented Electrical |
146 |
| 34.15 | ¹q¾¹¤Î®a¹q¥~´ß¥ÎÁá¼h§NñF [§CºÒ] ¿û¤ù Coated (Low Carbon) Steel Sheets for Casing,Electricals & Home Appliances |
147 - 148 |
| 35.0 | Áá¾TÖº¿û¤ù Aluminized Silicon Alloy Steel Sheet | 153 - 159 |
| 35.1 | ²¤¶ General | 153 |
| 35.2 | Áá¾TÖº¦Xª÷¿û¤ùªº¯S¦â Feature of Aluminized Silicon Alloy Steel Sheet |
153 |
| 35.3 | ¥Î³~ End Usages |
153 |
| 35.4 | §Ü¤Æ¾Ç«~¯à¤O Chemical Resistance |
153 |
| 35.5 | Áá¾T(Öº)¿û¤ù ¡V ¤é¤u¼Ð·Ç(JIS G3314) Hot-aluminum-coated sheets and coils to JIS G 3314 |
154 |
| 35.6 |
Áá¾T(Öº)¿û¤ù ¡V ¬ü§÷¸Õ¼Ð·Ç(ASTM A-463-77)35.7 JIS G3314Áá¼ö®û¾T¤ùªº¾÷±ñ©Ê¯à |
154 |
| 35.8 | ¤½®t Size Tolerance | 155 |
| 35.9 | Áá¾T(Öº)¿û¤ù¤Î¨ä¥LºØÃþ¿û¤ùªº§Ü»G»k©Ê¯à¤ñ¸û Comparsion of various resistance of aluminized steel & other kinds of steel |
156 |
| 35.10 | Áá¾T(Öº)¿û¤ù¥Í²£¬yµ{ Aluminum Steel Sheet, Production Flow Chart |
157 |
| 35.11 | ²k±µ¯à¤O Weldability | 158 |
| 35.12 | Áá¾T¿û¤ùªº²k±µª¬ºA(¤ñ¸û§NñF¿û¤ù) Tips on welding of Aluminized sheet in comparasion with cold rolled steel strip |
159 |
| 36.0 | ¿ûªO Steel Plate |
165 |
| 36.1 |
¿ûªO¥Î³~¤ÀÃþ¤Î¦U°ê¿ûªOªº¤u·~¼Ð·Ç¥]¬A¤é¤u¼Ð·Ç¤Î¬ü§÷¸Õ¼Ð·Ç |
166 - 168 |
| 36.2 | ¿ûªO¥Í²£¬yµ{ Production Flow Chart |
169 |
| 36.3 | ¿ûªOq³f»Ýª¾ Ordering of Steel Plate |
170 - 171 |
| 37.0 | ¤£ù׿û Stainless Steel |
175 - 203 |
| 37.1 | ¤£ù׿ûªº©w¸q Definition of Stainless Steel | 175 |
| 37.2 | ¤£ù׿û¤§¤ÀÃþ¡A@»G»k©Ê¤Î@¼ö©Ê Classification, Corrosion Resistant & Heat Resistance of Stainless Steel |
176 |
| 37.2.1 | ÅK»Ì¨t¤£ù׿û¤ù Chrome Stainless Steel |
176 |
| A) | °¨¤óÅ餣ù׿û Martensite Stainless Steel |
|
| B) | §CºÒ°¨¤óÅ餣ù׿û Low Carbon Martensite Stainless Steel |
|
| C) | §tÅKÅ餣ù׿û Ferrite Stainless Steel |
|
| 37.2.2 | Âì»Ì¨t¤£ù׿û Nickel Chrome Stainless Steel |
177 |
| 37.2.3 | ÄÀ¥Xµw¤Æ¤£ù׿û Precipitation Hardening Stainless Steel |
|
| 37.2.4 | ÅK¿ø¾T¤£ù׿û Fe / Mn / Al / Stainless Steel |
|
| 37.3 | ¤£ù׿ûªººÏ©Ê Magnetic Property & Stainless Steel |
178 |
| 37.4 | ¤£ù׿ûºä¡B¨÷¤ù¡B¤ù¤ÎªO¤§«p«×¤ÀÃþ Classification of Foil, Strip, Sheet & Plate by Thickness |
179 |
| 37.5 | ªí±«OÅ@½¦¯È Surface protection film |
180 |
| 37.6 | ¤£ù׿û¤ù§÷±`¥Î¥N¸¹ Designation of SUS Steel Special Use Stainless |
181 |
| 37.7 | ªí±³B²z Surface finish | 182 ¡V 183 |
| 37.8 | 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) ¡V strip/sheet |
184 |
| 37.9 | ¤£ù׿û¤ù¾÷±ñ©Ê¯à(301, 304, 631, CSP) Mechanical Properties of Spring use Stainless Steel |
185 |
| 37.10 | ¤£ù׿û ¡V ºØÃþ¡A¤u·~¼Ð·Ç¡A¤Æ¾Ç¦¨¥÷¡A¯SÂI¤Î ¥Dn¥Î³~ Stainless Steel ¡V Type, Industrial Standard, Chemical Composition, Characteristic & end usage of the most commonly used Stainless Steel |
186 - 194 |
| 37.11.1 | ¤£ù׿ûÁ¡¤ù¥Î³~¨Ò End Usage of Thinner Gauge |
195 |
| 37.11.2 | ¤£ù׿û¤ù¡BªO¥Î³~¨Ò Examples of End Usages of Strip, Sheet & Plate |
196 |
| 37.12 | ¤£ù׿ûÀ³¤O°h¤õ¨÷¤ù±`¥Î³W®æ¦Wµü¹Ï¸Ñ General Specification of Tension Annealed Stainless Steel Strips |
197 ¡V 198 |
| 37.13 | @¼ö¤£ù׿û Heat-Resistance Stainless Steel |
199 |
| 37.13.1 | Âì»Ì¨t@¼ö¤£ù׿û¯S©Ê¡B¤Æ¾Ç¦¨¥÷¡B¤Î¾Þ§@·Å«× Heat-Resistance Stainless Steel |
199 |
| 37.13.2 | »Ì¨t@¼ö¿û Chrome Heat Resistance Steel |
200 |
| 37.13.3 | Âì»Ì@¼ö¿û Ni - Cr Heat Resistance Steel |
200 |
| 37.13.4 | ¶W@¼ö¿û Special Heat Resistance Steel |
200 |
| 37.13.5 | §Ü¼ö¶W¯Å¦Xª÷ Heat Resistance Super Alloy |
200 |
| 37.13.6 | @¼ö¤£ù׿û¤ñ«ªí Specific Gravity of Heat ¡V resistance steel plates and sheets stainless steel |
201 |
| 37.14 | ¤£ù׿û§÷¤Î@¼ö¿û§÷¼Ð·Ç¹ï·Óªí Stainless and Heat-Resisting Steels |
202 - 203 |
| 38.0 | µo±ø¤ù Power Spring Strip | 205 - 212 |
| 38.1 | µo±øªº¤ÀÃþ¤Î§÷®Æ Power Spring Strip Classification and Materials |
205 |
| 38.2.1 | ¤WÃìµo±ø Wind-up Spring | |
| 38.2.2 | Ë«áÀ¿µo±ø Pull Back Power Spring | 206 |
| 38.2.3 | ¶ê±("¤R¦Ë")µo±ø Convex Spring Strip | 206 |
| 38.2.4 | ©Ô¤Øµo±ø Measure Tape | 206 |
| 38.2.5 | Å]³N¤âÀô Magic Tape | 206 |
| 38.2.6 | Å]³N¤âÀô¤Ø¤o¹ÏDrawing of Magic Tap | 207 |
| 38.3 | ©w«¬µo±ø Constant Torque Spring | 207 |
| 38.4 | ©w«¬µo±ø¤Î¤WÁåµo±øªºÅX°Ê¤O Spring Force of Constant Torque Spring and Wing-up Spring |
207 |
| 38.5 | ©w«¬µo±øªº§Îª¬¤Î½°Ê¹Lµ{ Shape and Spring Back of Constant Torque Spring |
208 |
| 38.6 | ©w«¬µo±øÅX°Ê¤O¤½¦¡¤Î¥N¸¹ The Formula and Symbol of Constant Torque Spring |
208 - 209 |
| 38.7 | Ãä½t³B²z Edge Finish | 210 |
| 38.8 | µw«× Hardness | 210 |
| 38.9 |
°ªºÒ¿û¤Æ¾Ç¦¨¥÷¤Î¥Î³~ |
211 |
| 38.10 | ¨C¤½¤çµo±øªºªø«×²©ö¤½¦¡ The Length of 1 Kg of Spring Steel Strip |
211 |
| 38.11 | SK-5 & AISI-301 ¨C¤½¤çªøªº«¶q/¤½¤ç(Áï100-200¤½Âç) Weight per one meter long (kg) (Width 100-200mm) | 212 |
| 38.12 | SK-5 & AISI-301 ¨C¤½¤ç¤§ªø«×(Áï100-200¤½Âç) Length per one kg (Width 100-200mm) | 212 |
| 38.13 | SK-5 & AISI-301 ¨C¤½¤Øªøªº«¶q/¤½¤ç(Áï2.0-10¤½Âç) Weight per one meter long (kg) (Width 2.0-10mm) |
212 |
| 38.14 | SK-5 & AISI-301 ¨C¤½¤ç¤§ªø«×(Áï2.0-10¤½Âç) Length per one kg (Width 2.0-10mm) |
212 |
| 39.0 | °ªºÒ¿û¤ù High Carbon Steel Strip | 214 - 222 |
| 39.1 | ¤ÀÃþ Classification |
214 |
| 39.1.1 | ¥Î²Õ´µ²ºc¤ÀÃþ Classification According to Grain Structure |
214 |
| 39.1.2 | ¥Î§tºÒ¶q¤ÀÃþ ¡V §Y§CºÒ¿û¡B¤¤ºÒ¿û¤Î°ªºÒ¿û Classification According to Carbon Contains |
214 |
| 39.2 | ¼u®¥ÎºÒ¿û¤ù CarbonSteel Strip For Spring Use |
215 |
| 39.2.1 | §Nªîª¬ºA Cold Rolled Strip | 215 |
| 39.2.2 | ¦^¤õª¬ºA Annealed Strip | 215 |
| 39.2.3 | ²f¤õ¤Î¦^¤õª¬ºA Hardened & Tempered Strip/ Precision ¡V Quenched Steel Strip |
215 |
| 39.2.4 | ¨©¤óÅé¿û¤ù Bainite Steel Strip | 215 |
| 39.3 | ¼u®¥ÎºÒ¿û¤ù§÷¤§Ãä½t³B²z Edge Finished | 216 |
| 39.4 | ²f¤õ¾¯ Quenching Media |
216 |
| 39.5 | ºÒ¿û¦^¤õ Tempering | 217 |
| 39.5.1 | ¦^¤õ¦³§C·Å¦^¤õ¤Î°ª·Å¦^¤õ Low & High Temperature Tempering |
217 |
| 39.5.2 | °ª·Å¦^¤õ High Temperature Tempering |
217 |
| 39.6 | °h¤õ Annealing | 218 |
| 39.6.1 | §¹¥þ°h¤õ Full Annealing | 218 |
| 39.6.2 | ÂX´²°h¤õ Diffusion Annealing | 218 |
| 39.6.3 | §C·Å°h¤õ Low Temperature Annealing | 218 |
| 39.6.4 | ¤¤³~°h¤õ Process Annealing | 218 |
| 39.6.5 | ²y¤Æ°h¤õ Spheroidizing Annealing | 218 |
| 39.6.6 | ¥ú½÷°h¤õ Bright Annealing | 218 |
| 39.7 | ²f¤õ Quenching | 219 |
| 39.7.1 | ®É¶¡²f¤õ Time Quenching | 219 |
| 39.7.2 | ¶ø¤óÅKìצ^¤õ Austempering | 220 |
| 39.7.3 | °¨¤óÅKÅé²f¤õ Marquenching | 220 |
| 39.7.4 | °ªºÒ¿û¤ù¥Î³~ End Usage of High Carbon Steel Strip | 220 |
| 39.8 | §Nªî°ªºÒ¿û ¡V ¤é¥»¤u·~¼Ð·Ç Cold-Rolled (Special Steel) Carbon Steel Strip to JIS G3311 |
221 - 222 |
| 40.0 | ¹qÁáª÷ÄÝ¿û¤ù Plate Metal Strip | 223 - 225 |
| 40.1 | ²¤¶ General | 223 |
| 40.2 | ¹qÁáª÷Äݸi¤ùªºÀuÂI Advantage of Using Plate Metal Strip |
223 |
| 40.3 | ª÷Äݸi¤ù¹qÁá¼h Plated Layer of Plated Metal Strip |
224 |
| 40.3.1 | ÁáÂì Nickel Plated | 224 |
| 40.3.2 | Áá»Ì Chrome Plated | 224 |
| 40.3.3 | Áá¶À»É Brass Plated | 224 |
| 40.4 | °ò¼hª÷ÄÝ Base Metal of Plated Metal Strip | 225 |
| 40.4.1 | §CºÒ¿û©ÎÅK°ò¼hª÷ÄÝ Iron & Low Carbon as Base Metal |
225 |
| 40.4.2 | ¤£ù׿û°ò¼hª÷ÄÝ Stainless Steel as Base Metal | 225 |
| 40.4.3 | »É°ò¼hª÷ÄÝ Copper as Base Metal |
225 |
| 40.4.4 | ¶À»É°ò¼hª÷ÄÝ Brass as Base Metal |
225 |
| 41.0 | ¶b©Ó¦Xª÷ Bearing Alloy | 226 - 227 |
| 41.1 | ²¤¶ General |
226 |
| 41.2 | ¶b©Ó¦Xª÷ ¡V ¤é¤u¼Ð·Ç JIS H 5401 Bearing Alloy to JIS H 5401 |
226 |
| 41.3 | ¿ü°ò¡B¹]°ò¤Î¾N°ò¶b©Ó¦Xª÷¤ñ¸ûªí Comparison of Tin base, Lead base and Zinc base alloy for Bearing purpose |
227 |
| 42.0 | ©ö·»¦Xª÷ Fusible Alloy | 228 |
| 43.0 |
²k±µ¦Xª÷ Soldering and Brazing Alloy |
229 |
| 43.1 |
³n²k Soldering Alloy |
229 |
| 43.2 | ³n²k¦Xª÷ ¡V ¤é¥»¼Ð·Ç JIS H 4341 Soldering Alloy to JIS H 4341 |
229 |
| 43.3 | µw²k Brazing Alloy | 229 |
| 44.0 | ¨ä¥L²k±µ§÷®Æ½Ð°Ñ¾\¤é¤u¼Ð·Ç¥Ø¿ý Other Soldering Material |
229 |
²Ä¤³¹ ²Ó½u§÷¡BªK§÷¡B´Î§÷
|
||
| 45.0 | ½u§÷/ªK§÷§÷½è¤ÀÃþ¤Î»s¦¨«~ Classification and End Products of Wire/Rod |
232 - 234 |
| 45.1 | ÅK½u(§CºÒ¿û½u)¤é¤u¼Ð·Ç JIS G 3532 Low Carbon Steel Wires ( Iron Wire ) to JIS G 3532 |
235 |
| 45.1.1 | ¥ú½u(§CºÒ¿û½u)¡A¤õ½u(°h¤õ§CºÒ¿û½u)¡A¹]¤ô½u (Áá¾N§CºÒ¿û½u)¤Î»s³y°v¥Î§CºÒ¿û½u¤§¥N¸¹¡B¤½®t¤Î³Æµù Ordinary Low Carbon Steel Wire, Annealed Low Carbon Steel Wire, Galvanized low Carbon Steel Wire & Low Carbon Steel Wire for nail manufacturing - classification, Symbol of Grade, Tolerance and Remarks. |
235 |
| 45.1.2 | ¾÷±ñ©Ê¯à Mechanical Properites |
236 |
| 45.1.3 | ¾N¥]¼h¤§«¶q¡A»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 |
237 |
| 46.0 | §N¨R¤Î§NÁë¥ÎºÒ¿û½uªK Carbon Steel Wire Rods for Cold Heading & Cold Forging (to JIS G3507) |
238 - 239 |
| 46.1 | ¯Å§O¡A¥N¸¹¤Î¤Æ¾Ç¦¨¥÷ Classification, Symbol of Grade and Chemical Composition |
238 |
| 46.2 | ª½®|¤½®t¡A°¾¶ê«×¤Î²æºÒ¼hªº¥§¡²`«× Diameter Tolerance, Ovality and Average Decarburized Layer Depth |
239 |
| 47.0 | §N©Ô¿ûªK§÷ Cold Drawn Carbon Steel Shafting Bar |
240 - 242 |
| 47.1 | ªK§÷¤§¬ü¤u¼Ð·Ç¡A¤é¤u¼Ð·Ç¡A¥Î³~¤Î¤Æ¾Ç¦¨¥÷ AISI, JIS End Usage and Chemical Composition of Cold Drawn Carbon Steel Shafting Bar |
240 - 241 |
| 47.2 | §N©Ô¿ûªO«¶qªí Cold Drawn Steel Bar Weight Table |
242 |
| 48.0 | °ªºÒ¿û½uªK High Carbon Steel Wire Rod (to JIS G3506) |
243 |
| 49.0 | §N©Ô°ªºÒ¿û½u Hard Drawn High Carbon Steel Wire (to JIS G3521, ISO-84580-1&2) |
245 - 246 |
| 49.1 | ¤Æ¾Ç¦¨¥÷¤ÀªRªí Chemical Analysis of Wire Rod |
245 |
| 49.2 | ½u®|¡B¤½®t¤Î¾÷±ñ©Ê¯à(¤é¥»¤u·~¼Ð·Ç G 3521) Mechanical Properties (JIS G 3521) |
246 |
| 50.0 | µ^½u(¤é¥»¼Ð·Ç G3522) Piano Wires ( to G3522) |
247 - 266 |
| 50.1 | ¯Å§O¡A¥N¸¹¡A§á¦±¯S©Ê¤Î¥i¥Î¤§½u§÷ª½®| Classes, symbols, twisting characteristic and applied Wire Diameters |
247 |
| 50.2 | ª½®|¡A¤½®t¤Î©Ô¤O±j«× Diameter, Tolerance and Tensile Strength |
248 |
| 50.3 | µõ¯¾¤§®e³\²`«×¤Î²æºÒ¼h Permissible depth of flaw and decarburized layer |
249 |
| 51.1 | ±`¥Îªº¼u®¤£ù׿û½u-½s¸¹¡A¯S©Ê¡Aªí±³B²z¤Î¤Æ¾Ç¦¨¥÷ StainlessSpring Wire ¡V National Standard number, Charateristic, Surface finish & Chemical composition |
250 - 251 |
| 51.2 | ¼u®¤£ù׿û½u¡A½u®|¤Î©Ô¤O¦Cªí Stainless Spring Steel, Wire diameter and Tensile strength of Spring Wire |
252 - 253 |
| 51.3 | ³B²z¤Îªí±ª¬ªp Finish & Surface |
254 |
| 51.4 | ¦UºØ¤£ù׿û½u¦b¤£¦P³B²z©Ô¤O¤ñ¸ûªí Tensile Strength of various kinds of Stainless Steel Wire under Different Finish |
255 ¡V 256 |
| 51.5 | ¶ê®|¤Î°¾¶ê«×¤§¤½®t Tolerance of Wire Diameters & Ovality |
257 |
| 51.6 | »ÌÂ줣ù׿û¤Î§Ü¼ö¿û¼u®½u§÷ ¡V ¬ü°ê§÷Åç¾Ç·| ASTM A313 ¡V 1987 Chromium ¡V Nickel Stainless and Heat-resisting Steel Spring Wire ¡V ASTM A313 ¡V 1987 |
258 |
| 51.6.1 | ¤Æ¾Ç¦¨¥÷ Chemical Composition | 258 |
| 51.6.2 | ¾÷±ñ©Ê¯à Mechanical Properties | 259 ¡V 260 |
| 51.7 | 305, 316, 321¤Î347¤§©Ô¤Oªí Tensile Strength Requirements for Types 305, 316, 321 and 347 |
261 |
| 51.8 | A1S1-302 ¶L¯Å½u§÷¤§©Ô¤Oªí Tensile Strength of A1S1-302 Wire |
262 |
| 51.9 | ¤é¥»¤u·~¼Ð·Ç ¡V ¤£ù׿ûªº¤Æ¾Ç¦¨¥÷(¥ý¼Æ¦r«á¦r¥À±Æ¦C) JIS ¡V Chemical Composition of Stainless Steel (in order of number & alphabet) |
263 - 264 |
| 51.10 | ¬ü°ê¤u·~¼Ð·Ç ¡V ¤£ù׿û¤Î¨¾¼ö¿û§÷ªº¤Æ¾Ç¦¨¥÷ (¥ý¼Æ¦r«á¦r¥À±Æ¦C) AISI ¡V Chemical Composition of Stainless Steel & Heat-Resistant Steel(in order of number & alphabet) |
265 - 266 |
| 52.0 | ©ö¨®ºÒ¿û Free Cutting Carbon Steels (to JIS G4804 ) |
267 - 272 |
| 52.1 | ¤Æ¾Ç¦¨¥÷ Chemical composition | 267 |
| 52.2 | ¶ê¿ûªK¡A¤è¿ûªK¤Î¤»¨¤¿ûªK¤§§Îª¬¤Î¤Ø¤o¤§¤½®t Tolerance on Shape and Dimensions for Round Steel Bar, Square Steel Bar, Hexagonal Steel Bar |
268 |
| 53.1 | ©ö¨®(§Ö«d)¤£ù׿û Free Cutting Stainless Steel | 269 |
| 53.2 | ©ö¨®(§Ö«d)¤£ù׿ûºØÃþ Type of steel | 270 |
| 53.3 | ©ö¨®(§Ö«d)¤£ù׿û©Ô¤Oªí Tensile Strength of Free Cutting Wires |
271 |
| 53.4 | ªK/´ÎµLªä¿i¤½®tªí (£g) (£g = 1/100 mm) Rod/Bar Centreless Grind Tolerance |
272 |
| 53.5 | ©ö¨®¤£ù׿û¤Î©ö¨®¿û¤§¤£¦P¤Ø¤o¤Îµw«×¤ñ¸û Hardness of Different Types & Size of Free Cutting Steel |
272 |
| 54.0 | «ó½u¡B¥b¶ê½u¤Î²§§Î½u Flat Wire, Half Round Wire, Shaped Wire and Precision Shaped Fine Wire |
273 - 275 |
| 54.1 | ¥[¤u¤èªk Manufacturing Method |
273 |
| 54.2 | À³¥Î§÷®Æ Material Used |
273 |
| 54.3 | ¯SÂI Characteristic |
273 |
| 54.4 | ¥Î³~ End Usages |
274 |
| 54.5 | ¤£ù׿û«ó½u¤Î¥b¶ê½u±`¥Î§÷®Æ Commonly used materials for Stainless Flat Wire & Half Round Wire |
274 |
| 54.6 | «ó½u¤½®t Flat Wire Tolerance |
275 |
| 54.7 | ¤è½u¤½®t Square Wire Tolerance |
275 |