IK-CHINA IK-CHINA IK-CHINA IK-CHINA LIMITED LIMITED LIMITED LIMITED 上海石高有限公司 上海石高有限公司 上海石高有限公司 上海石高有限公司 The unique data book containing comprehensive information and comparison tables on sizes, weights and general data of pipes, tubes, fittings, flanges, bars, sheet & strip, hollow sections, equipments and related products according to main international standards. General Catalogue www.magvant.com www.magvant.com
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The unique data book containingcomprehensive information andcomparison tables on sizes,weights and general data of pipes,tubes, fittings, flanges, bars, sheet& strip, hollow sections, equipments andrelated products according to maininternational standards.
Page 2--------------------------ContentPage 3---------------------------ProfilePage 4----------------------------Chemical composition for Carbon steel / Alloy tubesPage 5~6--------------------------Austenitic, ferritic and martensitic stainless steelPage 7~9---------------------------Comparison of International Standards for Stainless Steel
Page 10-------------------------------Feritic and Feritic-austenitic SteelPage 11~14---------------------------AISI / JIS / UNS / EN / DIN steel grades equivalence tablePage 15~16----------------------------TechalloyPage 17----------------------------------Super Duple Stainless SteelPage 19~25------------------------------Line PipesPage 26~27------------------------------ Furnace Tubes for Refinery Service
注 1: EN 标准残余元素 Nb≤0.01%, Ti≤0.04%, Ni ≤0.30%, Cu≤0.30% 总量≤0.70%Note1: EN residual element Nb≤0.01%, Ti≤0.04%, Ni ≤0.30%, Cu≤0.30% total≤0.70%注 2: 经协商,也可供应其他牌号的钢管Note2: Other grade can also be provided according to agreements with customers.
ASTM A179/A179M ASME SA179/SA179M: C 0,06~0,18%; Mn 0,27~0,63%; P max 0,035% ;S max. 0,035%;
SSSStainlesstainlesstainlesstainless SteelsSteelsSteelsSteelsAustenitic, feritic and Martensitic Stainless steel
1.4310 X12CrNi177 301 S 30100 Z12CN17-07 301 S21 SUS 301 ... ...
Z12Cn18-07
1.4311 X2CrNiN 1810 304LN S 30453 Z2CN18-10Az 304 S62 SUS 304LN 2371 ...
1.4401 X5CrNiMo17122 316 S 31600 Z6CND17-11 316 S16 SUS 316 2347 ...
TechalloyTechalloyTechalloyTechalloyNickel alloy
16161616 General Catalogue
Techalloy 825 is a thermally stabilized alloy which is resistant to both inorganic and organic acids. It has excellent resistance tooxidizing and nonoxidizing hot acid conditions and at temperatures up to the boiling point it is resistant to many acids and alkalinesolutions.
C max. Simax.
Mnmax.
Fe max. Ni min. S max. Cu max. Cr AL max. Mo Nb/Ta Ti max. P max. Co max. Grades
Specification:Specification:Specification:Specification:Seamless Pipes/Tubes: ASTM-B-407Welded Pipes/Tubes: ASTM-B-514/515Plates/Sheets: ASTM-B-409Bars: ASTM-B-408Fittings: ASTM-B-366Flange: ASTM-B-564Specific weight: 7,95 kg/dm3Melting range: 1335- 1385°°°° CWelding methods: Arc welding and common welding processesRange of application: Techalloy 800H is employed where maximum creep-rupture strength is required.
Techalloy C-276 is the improved version of Techalloy C and is resistant to numerous media including strongly oxidizing chemicals(for example iron and cupric chloride) warm polluted acids, solvents, chloride and media contaminated by chloride (organic andinorganic), dry chloride, formic and acetic acid, acetic anhydride, sea water and saline solutions. Furthermore, Techalloy C-276 isresistant when exposed to damp chlorine gas, hypochlorite and chlorodioxide solutions. Techalloy C-276 combines this excellentcorrosion resistance with immensely improved machineability. This alloy does not separate grain boundaries in the zone influencedby welding so that it is suited for most chemical applications even without heat-treatment.
Techalloy C-4 is a relatively new Ni-Cr-Mo alloy with improved resistance at high temperatures. Even when used for a long period oftime in the temperature range of 650 - 1050°°°° Celsius, this alloy retains its high ductility and corrosion resistance; furthermore it ishighly resistant to grain boundsary separation in the heat-treated zone influenced by welding. Thus it can be employed withoutheatretreatment. Techalloy C-4 is also highly resistant against stress corrosion cracking and oxidizing atmospheres at temperaturesup to 1050°°°° Celsius.
C max. Si max. Mn max. Fe max. Ni S max. Cr Mo W V max. P max. Co max. TiTiTiTi Grades0,01 0,08 1,0 4-7 57 Rest 0,03 14,5-16,5 15-17 3-4,5 0,35 0,04 2,5 Techalloy C-2760,015 0,08 1,0 3,0 Rest 0,03 14-18 14-17 0,04 2,0 0,70 Techalloy C-4
Specification:Specification:Specification:Specification:Seamless Pipes/Tubes: ASTM-B.622Welded Pipes/Tubes: ASTM-B-619/626Plates/Sheets: ASTM-B-575Fittings: ASTM-B-366Flange: ASTM-B-564Specific Weight: 8,88 kg/dm3Melting range ca. 1323°°°° CelsiusWelding methods: Arc welding. TIG (Details on request)Product forms: Tubes and pipes. sheets and plates.bars. wire and forgings, fittings and flanges
SSSStainlesstainlesstainlesstainless SteelsSteelsSteelsSteelsComparison of International Standards for Stainless Steel
General Catalgue
9999
Werkstoff- DIN. AISI. UNS. AFNOR. BS. JIS SS. GOST
X 10 NiCrAiTi 32 20 1.4876 recrystallised 192 210 500 to 750 30 22
annealed
solution annealed 192 170 450 to 700 30 22
Abovementioned values are applicable only for samples ≥ 3 mm.
SSSSpecialpecialpecialpecial SteelSteelSteelSteel AlloysAlloysAlloysAlloysComparison of International Standards for Special Steel Alloys
General Catalgue
11111111
AISIgrade
UNS designation
EN / DINnumerical
designation
EN / DINsymbolicaldesignation
High temperature martensitic stainless steel
USA, Japan Europe
JISgrade
F 91 1.4903 X10CrMoVNb9-11.4913 X19CrMoVNbN11-11.4922 X20CrMoV12-1
AISIgrade
UNS designation
EN / DINnumerical
designation
EN / DINsymbolicaldesignation
High molybdenum alloy
USA, Japan Europe
JISgrade
Alloy 29-4 S 447 35Alloy 29-4-2Alloy 254 SMO S 312 54 1.4547 X1CrNiMoCuN20-18-7(EN)
Alloy 256 MO N 08 926 1.4529 X1NiCrMoCuN25-20-7(EN)
Alloy 654 SMO S 326 54 1.4652Alloy 904 L N 08 904 1.4539 X1NiCrMoCu25-20-5QS 2025 MC (EN)
Alloy 1925 HMO N 08 925Alloy C-276 N 10 276Alloy C-1008Alloy C-1010Alloy F 49 S 345 65 1.4565 X3CrNiMnMoNbN23-17-5-3
N 08 320QS 2025 MT1.4583 X6CrNiMoN18-12
X1NiCrMoCuN20-18-7
AISIgrade
UNS designation
EN / DINnumerical
designation
EN / DINsymbolicaldesignation
High temperature alloy
USA, Japan Europe
JISgrade
Alloy A 286 S 662 86Alloy MP-35N R 30 035Alloy X 750 N 07 750Alloy 102 N 06 102Alloy 253MA or F45 S 308 15 1.4835Alloy 330 N 08 330Alloy 333 N 06 333Alloy 617 N 06 617
HighHighHighHigh NickelNickelNickelNickel AlloysAlloysAlloysAlloysAISI / JIS / UNS / EN / DIN steel grades equivalence table
12121212 General Catalogue
Stainless and high alloy steel grades used by pipe and tube manufacturersAISI / JIS / UNS / EN / DIN steel grades equivalence table
Alloy B2 N 10 665Alloy C4 N 06 455 2.4610Alloy CP Gr2 R 50 400Alloy C22 N 06 022 2.4602
N 06 059 2.4605Alloy C-276 N 10 276 2.4819QA C276Alloy G N 06 007QA G
N 06 617 2.4663Alloy G-3 N 06 985QA G3Alloy G-30 N 06 030Alloy K-500Alloy L-605 R 30 605Alloy HXAlloy MP35NAlloy X N 06 002QA XAlloy X-750Alloy 6ACAlloy 6XN N 08 367Alloy 20Alloy 25Alloy 31 N 08 031 1.4562Alloy 41XXAlloy 42Alloy 43XXAlloy 52Alloy 59 N 06 059Alloy 188Alloy 205Alloy 220Alloy 222Alloy 230Alloy 253 RMAAlloy 400 N 04 400 2.4360 NiCu30QA 400Alloy 556Alloy 600 N 06 600 2.4816 NiCr15FeNCF 600Alloy 600 N 06 600 2.4640 NiCr15FeNCF 600
HighHighHighHigh NickelNickelNickelNickel AlloysAlloysAlloysAlloysAISI / JIS / UNS / EN / DIN steel grades equivalence table
General Catalgue
13131313
AISIgrade
UNS designation
EN / DINnumerical
designation
EN / DINsymbolicaldesignation
High nickel alloy
USA, Japan Europe
JISgrade
Alloy 601 N 06 601 2.4851 NiCr23FeNCF 601Alloy 602 2.4633Alloy 622 N 06 622Alloy 625 N 06 625 2.4856QA 625Alloy 686Alloy 690 N 06 690 2.4642 NiCr29FeJS 700 N 08 700QS 2025 MAlloy 718 N 07 718 2.4668 NiCr19NbMoAlloy 800 N 08 800 1.4558 X2NiCrAlTi32-20NCF 800Alloy 800 N 08 800 1.4958 X5NiCrAlTi31-20Alloy 800 N 08 800 1.4876 X10NiCrAlTi32-20NCF 800Alloy 800 H N 08 810 1.4958 X8NiCrAlTi32-21NCF 800 HAlloy 800 HT N 08 811 1.4959 X8NiCrAlTi32-21Alloy 825 N 08 825 2.4858 NiCr21MoNCF 825
N 08 840Alloy 902Cupronickel 10 C 706 00 2.0872 CuNi10FeCupronickel 30 C 715 00 2.0882 CuNi30Mn1FeAlloy 330 1.4864 X12NiCrSi36-16
1.48772.4973 NiCr19CoMo
DuplexDuplexDuplexDuplex (ferritic(ferritic(ferritic(ferritic //// austenitic)austenitic)austenitic)austenitic) stainlessstainlessstainlessstainless steelsteelsteelsteelAISI / JIS / UNS / EN / DIN steel grades equivalence table
14141414 General Catalgue
AISIgrade
UNS designation
EN / DINnumerical
designation
EN / DINsymbolicaldesignation
Duplex (ferritic / austenitic) stainless steel
USA, Japan Europe
JISgrade
2205 S 318 03 1.4462 X2CrNiMon22-5-3QS 2205 (EN)
2205 S 322 052304 S 323 04 1.4462 X2CrNiMoN22-5-3(EN)
2506 S 312 602507 S 327 50 1.4410 X2CrNiMoN25-7-4(EN)
2550 S 325 50 1.44602550 S 325 50 1.4507 X2CrNiMoCuN25-6-3QSA 2505 (EN)
F 50 S 312 00 1.4460 X3CrNiMoN27-5-2F 51 S 318 03 1.4462 X2CrNiMoN22-5-3QS 2205 (EN)
F 51 S 322 05F 52 S 329 50F 53 S 327 50 1.4410 X2CrNiMoN25-7-4(EN)
F 54 S 327 40F 55 S 327 60 1.4501 X2CrNiMoCuWN25-7-4(EN)
S 312 54S 315 00 1.4417 X2CrNiMoSi19-5QS 1905S 317 60
329 S 329 00SUS 329 J1SUS 329 J2L
44621.4362 X2CrNiN23-4(EN)
S 392 74
TechalloyTechalloyTechalloyTechalloyNickel alloy
General Catalogue 15151515
TechalloyTechalloyTechalloyTechalloy 200200200200 is technically pure nickel with good mechanical properties and excellent resistance to alkali hydroxides, dry halogenhydrides as well as organic compositions. Even when exposed to high temperatures, Techalloy 200 retains its strength and is ductileat low temperatures. Techalloy 200 is a multipurpose grade and is used in applications where alloys are not essential. It also hasgood magnetic and magnet ostrictive properties, high thermal and electrical conductivity as well as low gas content in the elctronicsindustry. Furthermore Techalloy 200 is of interest for its good weldability.
TechalloyTechalloyTechalloyTechalloy 201201201201 is an alloy similar to Nickel 200. The carbon content of the former is a little above that of Nickel 200. Due tothis difference, Techalloy 201 is preferred in caustic soda above 300° C. Techalloy 201 disposes of the same high thermaland electrical conductivity and of the same magnetic and megnetostrictive properties as the grade Nickel 200.
TECHALLOYTECHALLOYTECHALLOYTECHALLOY 400400400400 is a weldable nickel-copper alloy with good resistance to sea water, alkaline acids, organic acids, pharmaceuticalproducts, ammonium sulfate, fatty acid etc. Tensile strength and ductility are retained in operating temperatures of max. 450° C.Range of application: Techalloy 400 is mainly employed for valves and pumps, pump and propeller shafts, metal fittings andmachine parts for ships, electronic and electric parts, tanks for petrol and drinking water, distilling apparatus for crude petroleum,Electric
TechalloyTechalloyTechalloyTechalloy 600600600600 has excellent mechanical properties and oxidation resistance at high temperatures. It is a standard engineeringmaterial and mainly employed in applications, which require the combination of resistance to corrosion and heat.
TechalloyTechalloyTechalloyTechalloy 601601601601 has very good properties at high temperatures and is oxidation resistant as well as scale-resistant at temperatures ofup to 1250°C. The high chromium content results in good resistance oxidation, carburization and sulfurous media. The aluminiumand nickel content result in a further improvement of the oxidation resistance.
TechalloyTechalloyTechalloyTechalloy 625625625625 is an alloy with high resistance and ductility at lowest temperatures and up to 1100° C. Techalloy 625 is not magneticand apart from its high oxidation resistance it is also resistant against many media. High resistance against stress corrosioncracking,pitting and crevice corrosion is also a main characteristic of Techalloy 625.
TechalloyTechalloyTechalloyTechalloy 800800800800 is an austenitic alloy with high tensile strength and resistance against oxidation and carburization at hightemperatures. This grade is resistant to stress corrosion cracking, sulfurous media and scale. The solution annealed execution ofTechalloy 800, Techalloy 801,has significantly, highercreep strength.
C max. Simax.
Mnmax.
Fe max. Ni Smax.
Cu. max. Cr Al. max. Mo Nb /Ta TiTiTiTi maxmaxmaxmax Pmax.
Techalloy 825 is a thermally stabilized alloy which is resistant to both inorganic and organic acids. It has excellent resistance tooxidizing and nonoxidizing hot acid conditions and at temperatures up to the boiling point it is resistant to many acids and alkalinesolutions.
C max. Simax.
Mnmax.
Fe max. Ni min. S max. Cu max. Cr AL max. Mo Nb/Ta Ti max. P max. Co max. Grades
Specification:Specification:Specification:Specification:Seamless Pipes/Tubes: ASTM-B-407Welded Pipes/Tubes: ASTM-B-514/515Plates/Sheets: ASTM-B-409Bars: ASTM-B-408Fittings: ASTM-B-366Flange: ASTM-B-564Specific weight: 7,95 kg/dm3Melting range: 1335- 1385°°°° CWelding methods: Arc welding and common welding processesRange of application: Techalloy 800H is employed where maximum creep-rupture strength is required.
Techalloy C-276 is the improved version of Techalloy C and is resistant to numerous media including strongly oxidizing chemicals(for example iron and cupric chloride) warm polluted acids, solvents, chloride and media contaminated by chloride (organic andinorganic), dry chloride, formic and acetic acid, acetic anhydride, sea water and saline solutions. Furthermore, Techalloy C-276 isresistant when exposed to damp chlorine gas, hypochlorite and chlorodioxide solutions. Techalloy C-276 combines this excellentcorrosion resistance with immensely improved machineability. This alloy does not separate grain boundaries in the zone influencedby welding so that it is suited for most chemical applications even without heat-treatment.
Techalloy C-4 is a relatively new Ni-Cr-Mo alloy with improved resistance at high temperatures. Even when used for a long period oftime in the temperature range of 650 - 1050°°°° Celsius, this alloy retains its high ductility and corrosion resistance; furthermore it ishighly resistant to grain boundsary separation in the heat-treated zone influenced by welding. Thus it can be employed withoutheatretreatment. Techalloy C-4 is also highly resistant against stress corrosion cracking and oxidizing atmospheres at temperaturesup to 1050°°°° Celsius.
C max. Si max. Mn max. Fe max. Ni S max. Cr Mo W V max. P max. Co max. TiTiTiTi Grades
Specification:Specification:Specification:Specification:Seamless Pipes/Tubes: ASTM-B.622Welded Pipes/Tubes: ASTM-B-619/626Plates/Sheets: ASTM-B-575Fittings: ASTM-B-366Flange: ASTM-B-564Specific Weight: 8,88 kg/dm3Melting range ca. 1323°°°° CelsiusWelding methods: Arc welding. TIG (Details on request)Product forms: Tubes and pipes. sheets and plates.bars. wire and forgings, fittings and flanges
Super-DuplexSuper-DuplexSuper-DuplexSuper-Duplex StainlessStainlessStainlessStainless SteelSteelSteelSteelTubes, Pipe, Flanges, Fitting, Round bar and Plate
a . . .Weight percent, maximum unless otherwise noted.b . . .Unless otherwise indicated, a common name, not a trademark, widely used, not
associated with any one producer, as liste in ASTM A240.c . . .W 0.50-1.00; Cr+3.3 Mo + 16N=40 mind . . .AISI designation
Super-DuplexSuper-DuplexSuper-DuplexSuper-Duplex StainlessStainlessStainlessStainless SteelSteelSteelSteelTubes, Pipe, Flanges, Fitting, Round bar and Plate
18181818 General Catalogue
BENEFITS
• High strength
• High resistance pitting, crevice corrosion resistance
• High resistance stress corrosion cracking, corrosion fatigue and erosion
• Excellent resistance to chloride stress-corrosion cracking
• High thermal conductivity
• Low coefficient of thermal expansion
• Good sulfide stress corrosion resistance
• Low thermal expansion and higher heat conductivity than austenitic steels
• Good workability and weldability
• High energy absorption
APPLICATIONS
• Heat exchangers, tubes and pipes for production and handling of gas and oil
• Heat exchangers and pipes in desalination plants
• Mechanical and structural components
• Power industry FGD systems
• Pipes in process industries handling solutions containing chlorides
• Utility and industrial systems, rotors, fans, shafts and press rolls where thehigh corrosion fatigue strength can be utilized
• Cargo tanks, vessels, piping and welding consumables for chemical tankers
• High-strength, highly resistant wiring
LineLineLineLine PipesPipesPipesPipes forforforfor LowLowLowLow TemperatureTemperatureTemperatureTemperature ServiceServiceServiceServiceASTM-A333/Seamless and Welded
Elongation in 2 in. or50 mm, (or 4D), min.% Basic minimumelongation for walls5/16 in. (8mm) andover in thickness, striptests, and for all smallsizes tested in full section When standard round2-in. or 50-mm gage-length or proportion-ally smaller size testspecimen with thegage length equal to4D (4 times the dia-meter) is usedFor strip tests, a de-duction for each 1/32in. (0.8 mm) decreasein wall thicknessbelow 5/16 in. (8 mm)from the basic mini-mum elongation of thefollowing percentage
Elongation in 2 in. or 50 mm, min, %:Basic minimum elongation transverse strip tests, and for all small sizes tested in full sectionWhen standard round 2-in. or 50-mm gage length test specimen is usedFor longitudinal strip testsFor transverse strip tests, a deduction for each1/32-in. (0.8 mm) decrease inwall thickness below 5/16in. (7.9 mm) from the basic minimum elongationof the following percentage shall be made
Tensile strength. min. ksi (MPa) 47 (324) 55 (379)
Yield strength. min. ksi (MPa) 26 (179) 30 (207)
Elongation in 2 in. or 50 mm (or 4D) min%
Basic minimum elongation for walls 5/16 35 30in. (7.9 mm) and over in thickness
When standard round tension test 28 22specimen with 2-in. or 50-mm gagelength or smaller proportionally sizedspecimen with the gage length equalto 4D (4 times the diameter) is used
For longitudinal strip tests. a deduction 1.75A 1.50A
shall be made for each 1/32-in. (0.80mm)decrease in wall thickness below 3/16 in.(7.9mm) fromthe basic minimum. elongation of thefollowning percentage
Minimum Elongation Values
Wall thickness Elongation in 2 in. or 50 mm. min. %A
T21 0.05 min-0.15 max 0.30-0.30 0.025 0.025 0.50 max 2.65-3.35 0.80-1.06 —
T22 0.05 min-0.15 max 0.30-0.60 0.025 0.025 0.50 max 1.90-2.60 0.87-1.13 —
Grade Composition, %
Carbon Manganese Phosphorus max Sulfur, max Silicon Chromium Molybdenum Others
All grades Gradeexcept T91T91
Tensile strength. min. lsi (MPa) 60 (414) 85 (585)
Yield strength. min. ksi (MPa) 25 (172) 60 (414)Elongation in 2 in. or 50 mm (or 4D). min. %
Basic minimum elongation for walls 30 205/16 in (7.9 mm) and over in thickness.longitudinal strip tests. and for all smallsizes tested in full section
When standard round 2-in. or 50-mm 22 20gage or smaller proportionally sizedspecimen with the gage length equal to4D (4 times the diameter) is used.
For longitudinal strip tests a deduction 1.50A 1.00shall be made for each 1/32 in. (0.79 mm)decrease in wall thickness below 5/16in. (7.9 mm) from the basic minimumelongation of the following percentage points
Wall Thickness Elongation in 2 in. or 50 mm. min. %
Pipes and Heat Exchanger TubesSeamless cold-finished tubes in the size range 6,0 up to 60,3 mm OD particularly inheatexchanger and condenser tube dimensions canbe supplied in fix- and random lengths, in straight lengths as well as in U-bendexecution. seamless tubes in stainless steel, nickelalloys and titanium as mentioned are applied in Chemical-Petrochemical-, Fertilizer-, Power-, Thermal Processing Plants and ShipbuildingIndustry all over the world. Even when applied undermost severe operating conditions. Seamless Tubes have proved that they meethighest requirements in respect to quality,performance and resistance. GeneralWhereas the ASTM A 213 combined with tolerances according to ASTM A 450 exclusivelyprescribes minimum wall tolerance, the NFA andBS allows both, minimum wall and average wall tolerances.An exception herepresents the DIN standard. there are no indications about tolerances within the production standards of DIN17456/17458.Those are separately specified within the EN-ISO 1127 (previously: DIN 2462) and DIN 28180 giving several possibilities ofaveragewallthickness, whereby different combinations for O.D. and tolerance of wallthickness can be chosen.
Cold Finished Pipes
Manufacturing Standard DIN 17456 ASTM A 268 ASTM A 269 ASTM A 312 NFA 49117
Tol. Standard: EN-ISO 1127 ASTM A 268 ASTM A 269 ASTM A 530 Average wall
(prior: DIN 2462)
Tubes according to these specifications must not be used as heat exchanger tubes.
Cold Finished Heat Exchanger Tubes
Manufacturing Standard DIN 17458/AD-W2 ASTM A 213 NFA 49217
VD-TÜV-WB
Tol. Standard: EN-ISO 1127 ASTM A 450 Average wall
(previously:DIN 2462) (min. wall)
DIN 28180 Minimum wall
Tubes according to these specifications can be used as line pipes as well.
stainless steel, nickel and titanium alloy tubes are manufactured on most modern production equipment, whereby theappliedproduction methods assure the highest possible standard of quality (certified acc. to ISO 9002). Morever, for continuousquality assurance and-control, our independent testing department is equipped with most modern testing facilities, i.e. tensile testmachinery, hardness measuringapparatus, ultrasonic and eddy-current testing line, coldwater-pressure test equipment and manyother modern destructive and non-destructivetest instruments.All tests carried out on material or finished products can be split intothree major categories: Mechanical tests, Non-Destructive tests andCorrosion tests.
The tests mentioned below will be carried out according to the relevant material specification or on special request to be agreedupon in thepurchase order.
MECHANICAL TESTS
Tensile TestA longitudinal specimen of known cross sectional area is taken from the material and gripped at each end, pulled apart until ruptureoccurs.By recording the load applied and the extension during loading a Stress-Stain Graph can be plotted (see diagram).
From this graph the following values can be computed:
Ultimate tensile strength (D)The maximum load applied during the test divided by the original cross-sectional area of the test-piece
Proof stress (C)This is the load at which the sample is permanently elongated by a specificpercentage of the original length(e.g.0.2%).
Elastic limit (B)The highest load at which there is no permanent deformation of the testpiece.
Yield pointThe lowest stress at which the elongation of the test-piece proceeds withoutany increase in load.
Modulus of elasticityIn the tensile test, the ratio between stress and strain within the elasticdeformation range is known as Young´smodulus. From the ruptured test-piece, two other values can be computed
ElongationThis is the extension of the test-piece expressed as a percentage of its originallength
Reduction of areasThis is the reduction in cross-sectional area of the test-piece after tensile fracture expressed as a percentage ofthe original cross-sectionalarea.
Flattening TestThis is usually applied to tube and involves flattening sample of tube between two parallel faces without showing flaws orcracks. Thelength of the test-piece and degree to which it is to be flattened is specified. The latter usually expressed in termsof the wallthickness of the tube.
Flare or Drift TestThis is a form of ductility test and applies to tube. The end of the tube is required to be expanded by a specifiedincrease in diameterwithout splits or cracks. The included angle of drift is also specified.
Hardness TestsThese tests determine the resistance of material to indentation.
Brinell hardness testA standard size hardened steel ball is indented into the surface of material by an applied standard loadfor a duration of 15 seconds.The diameter of the impression is measured accurately by microscope andthe hardness value calculated.
Rockwell hardness testThis determines hardness by measuring the depth to which a diamont cone or hardened steel ball, underspecific load, penetratesthe material. The hardness number is indicated on a scale according to the loadapplied.
Vickers diamond hardness testThis determines hardness by measuring the impression left in material by diamond pyramid under astandard load for a specifiedtime. The square impression is measured, accurately, diagonally and is areacalculated. The hardness value is calculated.
NON-DESTRUCTIVE TESTS
Ultrasonic Testing acc. to ASTM-E213 / SEP1915; 1918; 1919This test involves ultrasonic sound waves being aimed, via a couplingmedium, at the material to be tested. A proportion sound is bouncedback at the coupling medium/material interface but theremainder enters the material and is bounced back from the internal surface, to theexternal surface, where a transducer converts thesound into electrical energy. This is then monitored on a cathode ray tube. If a calibrated standard is shown on the tube, anydeviation from the standard will be immediately visible, thus indicating cracks orinternal defects.
Eddy-Current Testing acc. to ASTM-E426 / SEP1925This involves inducing eddy currents into the material by exciting a coil which surmounts two narrow search coils surrounding thematerial.Any discontinuities in material are found by comparing the electrical conditions that exist in the two search coils. The faultsignals areamplified and can be shown on a cathode ray tube or as an audible signal.
Hydrostatic Test acc. to tube specificationThis is used to test the manufactured items under a test pressure equivalent or greaterthan pressure encountered in operation. It involvesfilling the tube with demineralized water, which cannot be compressed, andincreasing the pressure, to that specified, inside the tube. Thepressure is transmitted to the tube by the water and therefore apressure to which the tube has been tested is obtained.
Dye-penetrant Test acc. to ASTM-E165 / DIN 54152This is used to detect cracks and involves spraying a dye on the area to be tested. After allowing time for penetration the surplus dyeis removedand the area is then sprayed with a white developer. Any faults are releaved as coloured lines or spots caused by thedeveloper absorbing thedye seeping from the cracks.
PMI ( positive material identification) - Mix-Up ControlPMI / Mix-Up Control is carried out by spectrotest. Spectrotest is used for "Mix-Up Control" work, testing of a material quality iscarried out ona Yes / No basis in relation to the quality of the reference material. The operator is prompted to "Recalibrate", "Test thereference material" and " Carry out mix-up control" by the instrument.
Microstructure test according to ASTM E 112 / DIN 50601.These test methods of determination of average grain size in metallicmaterials are primarily measuring procedures and, because oftheir purelygeometric basis, are independent of the metal or alloy concerned. Thebasis procedures may also be used for theestimation of average grain,crystal or cell size in nonmetallic materials. The comparison method byplanimetric (or Jeffries) procedure
is used if the structure to the materialapproaches the appearance of one of the standard comparison charts.
CORROSION TESTSVarious corrosion tests are available using different corrosiveenvironments to indicate the performance of material under heavydutyapplications.
Strauss Testacc. to ASTM-A262 Practice E /EN ISO 3651-2 / SEP 1877This test detects inter-crystalline corrosion and involves the use ofboiling copper sulphate/sulphuric acid solution which mustcontainsolid electrolytic copper. The test samples are immersed in the solutionfor 15 hours. After immersion the samples are bentthrough 90. Thosesamples which bend without cracking are considered resistant to inter-crystalline corrosion.
Huey Testacc. to ASTM-A262 Practice C / SEP1870This test detects the susceptibility to intergranular attack and involves theuse of boiling nitric acid. The test samples are immersed inthe solution at a concentration of 65% nitric acid by weight for five 48 hour periods.The effects of the acid on the material ismeasured by the loss in weight after each period and the corrosion rate assessed as a thickness lossin a given time.
TYPES OF CORROSIONMany different types of corrosion exist and positive identification of the results of corrosion often pinpoint the cause andconsequently apotential remedy. The following are the more generally encountered:
Stress CorrosionThe presence of residual stresses within a fabrication, caused by deformation, welding etc. may produce an accelerated form ofcorrosive attack,especially when the environment contains chloride. This phenomenon is more prevalant in austenitic steels thanthose with a duplex structure.This type of corrosive attack may be obviated by a stress relieving annealing at a temperature of 880Cor above.
Intercrystalline CorrosionThis type of corrosion is to be found fundamentally in the austenitic steels. If an austenitic stainless steel is maintained during acertain periodof time at temperatures between 400 and 900C a precipitation of carbides at the grain boundaries is provoked whichdepletes the chromeof the adjoining areas. If, in these conditions, the steel is subjected to reactive media, there may beintergranular oxidation known asintercrystalline corrosion. It is essential to avoid slow cooling through the critical temperature range.The cause of the precipitation may beincorrect heat treatment, defective heating or cooling during the transformation of the steel,heating during welding.
Selective Corrosion or PittingWhen a series of conditions forces the passivity to disappear from some points of the surface of a stainless steel they transform intoanodesgiving way to the creation of galvanic pairs. In general it is shown by very fine pitting which rapidly develops in depth and inlength. A typicalcase of this corrosion is produced by sea water in almost all steels, and it is dangerous because it is difficult to detect.The chlorides, bromidesand hipochlorides are those which present the greatest aggressivity. The composition of the steel and itsstructure are factors which alsoinfluence this type of corrosion. If dirt accumulates on the surface of a stainless steel, the access ofoxygen is avoided on the covered areas,pitting forming as a result of the loss of passivity. The austenitic steels with molybdeniumshow good resistance and this improves if they arecopper alloyed. Nitrogen also reduces the tendency towards corrosion by pitting.
Types of Inspection Documents DIN EN 10204(previously DIN 50.049)
GeneralThis European Standard defines the different types of inspection documents supplied to the purchaser, in accordance with therequirementsof the order, for the delivery of metallic products.
Inspection documents drawn up from inspection and tests carried out or supervised by authorized personnel independent ofthemanufacturing department, and based on specific testing
Inspection certificate 3.1.Document issued on the basis of inspection and tests carried out in accordance with the technical specifications of the order ortheofficial regulations and the corresponding technical rules. The tests shall be carried out on the products supplied or the productsin theinspection unit, of which the consignment constitutes a part.The inspection unit is set by the product standard, the officialregulations and corresponding technical rules or by the order.There are different types:
Inspection certificate 3.1.B/EN 10204is issued by the department independent of the manufacturing department and validated by an authorized representative of thestaffindependent of the manufacturing department.Inspection certificate 3.1.C/EN 10204is issued and validated by an authorized representative of the purchaser, in accordance withthe specifications of the order.
Inspection report 3.2/EN 10204 Where the inspection certificate is validated, following special agreement, both by themanufacturer´s authorized representative and thepurchaser´s authorized representative, it is known as the inspection report.
18Cr-2Mo4 0.025 max 1.00 max 0.30-0.60 0.040 0.030 17.5-19.5 1.75-2.50 ... 40[275] 60[415] 201 Grade T5c shall have a titanium content of not less than 4 times the carbon content and not more than 0.70%.2 Grade T91 - other elements: Cb 0.06 - 0.10 • N 0.030 - 0.070 • Ni 0.40 max • Al 0.04 max.3 Grade T92 - other elements: W 1.50 - 2.00 • Cb 0.04 - 0.09 • B 0.001 - 0.006 • N 0.03 - 0.07 • Ni 0.40 max • Al 0.04 max.4 Grade 18Cr-2Mo shall have Ti + Cb = 0.20 + 4(C + N) min, 0.80 max, other elements N max 0.035 • (Ni + Cu) max 1.00.
Our main designed Equipments: various types of air cooler (includingnuclear power equipment cooler,seawater cooler,titanium and other specialized cooling equipment), medium and low pressure vessel, air-water coller and air-air cooler for DC, ACmotor, cold riveting equipments, steel structures.
Material of core tube can be stainless steel, carbon steel, corrosion resistant steel, copper and copper alloys, Titaniumand Titaniumalloys and the other materials. These products are widely used in petroleum, chemical, metallurgy, textile, mechanicaland electrical,light industry and pharmaceutical industries in the heating, drying, condensation and cooling equipments.
Standard Range: Tube OD 16mm-219mm, Wall Thickness 2mm-16mm,Fin Height 5mm-30mm,Fin Thickness 0.5mm-4.0mm,Fin Pitch 2.8mm-50mmTube Length max 23m
SupplySupplySupplySupply RangeRangeRangeRange ofofofof BaseBaseBaseBase Tubes:Tubes:Tubes:Tubes:Carbon SteelASTM A 179, ASTM A 192, ASTM A 210 Gr. A1, ASTM A 210 Gr. C, ASTM A 106 Gr. BLow Alloy SteelASTM A 209 T1, ASTM A 213 / A 199 T11/T12, ASTM A 213 / A 199 T22, ASTM A 213 / A 199 T5, ASTM A 213 / A 199 T9, ASTM A335 P1 / A 161 T1, ASTM A 335 P11 / P12 / A 200 T22, ASTM A 335 P22 / A 200 T22, ASTM A 335 P5 / A 200 T5, ASTM A 355 P9 /A 200 T9Stainless SteelASTM A 213 / A 312 TP 304, ASTM A 213 / A 312 TP 304L, ASTM A 213 / A 312 TP 321, ASTM A 213 / A 312 TP 316, ASTM A 213 /A 312 TP 316L, ASTM A 213 / A 312 TP 347, ASTM A 213 / A 312 TP 316Ti, ASTM A 289 / A 790 UNS S 31803, ASTM B 677 Alloy904LNickel ASTM B 161 Ni 200, ASTM B 161 Ni 201Nickel Copper ASTM B 163 N 04400Nickel-Chrom-Iron ASTM B 163 N 06600, ASTM B 161 N 08825, ASTM B 468 N 08020, ASTM B 163 N 08800Copper AlloyASTM B 75 / B 111 No. 122, ASTM B 75 / B 111 No. 142, ASTM B 111 Ca. No. 443, ASTM B 111 Ca. No. 687, ASTM B 111 Ca. No.608, ASTM B 111 Ca. No. 706, ASTM B 111 Ca. No. 715Titanium alloy GR1 GR2 GR3 GR7 GR9 GR12 GR16 GR17 ASTM B338, ASME SB338Aluminium AlloysASTM Alloy 1050 / 1050A, ASTM Alloy 5754, ASTM Alloy 3003, ASTM Alloy 5083, ASTM B221 6061 T6, ASTM B209 1060, 1100,1435, 2A12, 3A21, 6A02, 6063, 6005, K70A.Other material grades can be manufactured upon request.
Comparison of fin tubes
Fin types Simple L finned tubes L finned tubes L L finned tubes T type finned tubes Oval finned tubes Extruded finned tubes
Contacting pressurekg/cm2
P=15 P=17 P=17 P=75
Working temperature℃ 70 100 (150) 110()195 250(400) 200(280)
Fin materials Al Al 99.5% Al 99.5% Al 99.5% Al, steel, copper Al 99.5% or other materials
FinFinFinFin tubes'stubes'stubes'stubes's finfinfinfin type:type:type:type: GGGG embeddedembeddedembeddedembedded finfinfinfin tubestubestubestubesMaterial CombinationsCore TubeCarbon steels (ASTM A 179/ A 214, St 35.8,ect.), low-alloy steels, stainlesssteels, copper-nickel alloys, aluminium bronze, copper,nickel-alloys(Alloy 400, ext.),
Fins:Aluminium ASTM B209 Al 1060;ASTM B209 Al 1100, A1050, etc.
Manufacturing process( Embedded Finned tubes) The fin strip is wound into a machined groove and securely locked into place by back filling with basetube material. This ensures that maximum heat transfer is maintained at high tube metal temperatures.
Maximum operating temperature for this fin type is 450° C.
G type embedded fin tubes machine is designed by ourself based oninternational advnaced technologies and experience with stable andfirm slotting embedding technology, pulled off force not less than 70 N,medium allowable temperature of 450 ℃, with strong resistant andheat-resistant ability, widely used in the impact of petrochemicalrefining air condenser.
Fins:Aluminium ASTM B209 Al 1060;ASTM B209 Al 1100, A1050, etc.
Manufacturing processThe manufacturing strip is folded to from an L shape and then woundaround the base tube. The feet of the fins are joined togetherand coverthe whole of the finned surface. Both lends are clamped down to avoidunrolling through damage.
AdvantagesEconomicThis method of manufacturing enables us to place the finning on a verythin-walled tube with is particularly desirable whenusing noble alloys(titanium, stainless, copper, nickel).The tube can withstand a temperature of up to 130°C without the risk of atmospheric corrosion or thermal stress.L1 max. = 12 000mm Fin Thickness = 0,3 - 0,4 mm Fa = Outer Tube Surface Area incl. Surface Area of FinsL2 max. = L1 -2t x = acc. to clientsspecification Fi = Interior Tube Surface Area per Meter (m2/m)FZR = Uncovered Tube Area between the finsIncreased contact surface and improved lock of the fin base in the axial surface of the tube. Improved fin bond stability at highertemperatures. More stable during application process than Wrap-On Fin.
Fields of Application. the petroleum, chemical and petrochemical process industries. natural gas treatment. the steel industry: blast furnace and converter systems. power generation: steam turbine exhaust condensing. contact condensing with cooling of circulating condensate. fossil and nuclear power plants. air conditioning (freon, ammonia, propane). incineration of household refuse. compressor coolers, ect.
HighHighHighHigh FrequencyFrequencyFrequencyFrequency electricelectricelectricelectric resistanceresistanceresistanceresistance weldedweldedweldedwelded spiralspiralspiralspiral finfinfinfin tubestubestubestubesHF welded spiral fin tubesHF welded serrated spiral fin tubesHelical Serrated Finned Tubes are produced by helically wrapping continuous serrated fin strip on edge around the tubecircumference and continuously welding the fin strip to the tube. Before being formed around the tube, the fin strip is cut (or"serrated") crosswise from one edge (which will become the outer edge of the fin segments) to within 1/4" of the other edge, leavingan uncut portion that will become a continuous base for the fin segments. The interval between cuts (which determines thesegment width after the strip is formed around the tube) may be specified as either 5/32" or 5/16". After being cut, the fin strip isheld under tension and confined laterally as it is formed around the tube, thereby ensuring forceful contact with the tube surface.As the fin strip is formed around the tube its outer (serrated) edge spreads, opening the segments like petals of a daisy. Acontinuous weld is applied at the point where the fin strip first begins to bend around the tube diameter, using the gas metal arcwelding process.This welded steel finned tube configuration can be used for practically any heat transfer application, and is particularly suited to hightemperature, high pressure applications. The important features of this configuration are efficient, effective bond of fin to tubeunder all conditions of temperature and pressure, and ability to withstand high fin-side temperatures.
extruded fin tubes (DR fin tubes)s and many special sizes extruded fin tubes. extruded fin tubes (DR fin tubes) has the advantagesof high efficiency, strong corrosion resistant and long life as the International, technologically advanced heat transfer element.
The core tube of double extruded fin tube can be SS, CS, corrosion resistant steel, copper and copper alloys, Ti and Ti alloys andthe other materials. The base tube of single extruded fin tube can be copper, Nickel-copper, Aluminum and the other materials.These products are widely used in petroleum, chemical, metallurgy, textile, mechanical and electrical, light industry andpharmaceutical industries in the heating, drying, condensation and cooling equipments.
Applications and characteristics
Working temperature max. 280 CWorking pressure 32MPa maxHigh heat transfer performance, same with KL type. Good fins stiffness, against deformation high atmospheric corrosion resistancefor long term stable usage.
Cooler for DC,AC motor We designs KSL Kaseries and LAW knapsack air-water cooler, air-air cooler for DC electric motor, whichare forcing cooling equipments during the operations of all kinds of DC electric motors. This series product gathers cycle fan, theinhaler and all kinds of inspecting devices together. Its installation is easier than the pipe ventilation electric motors. It make theelectric motor protection rank reach IP44 or IP54. The cooler adopts extruded fin tubes with the advantages of large heat transferarea, high efficiency and long life as the heat transfer element.
Wind generator Cooler The new energy wind turbine cooler KLF 500 designed adopts high efficiency and low noice axial fan ascooling wind power source. The internal core components of heat exchanger adopts anti-rust aluminum pipe LF21 with high heattransfer efficiency.
Heat exchanging coolers
We design various coolers equipments to working in dfferent envrionments according to customers' requirements.
Designed components for water systems of Power Station Auxiliary: steel tanks, steel water cooler, ion exchangers, water heaters,water filters.
Oil back control box in hydrogen side, the hydrogen pressre control devices and oil-water cooler for hydrogen oil system of powerstation auxiliary units Oil-water cooler series with high performance adopts high-fin-threaded element
SpecialSpecialSpecialSpecial equipmentsequipmentsequipmentsequipmentsSteam heaters we designed and manufactured are specially for petroleum and chemical industry with high heat-exchangingefficiency, reasonable design of structure and long use life.
Bearing oil coolers we made are for large water-wheel generator and vertical electrical motors with largerheat-exchange area, compact structure and long use life.The lastest bearing oil cooler exploited by our factory in horizontal typegreatly reduces assistant equipments as well as occupation area of electric motor coolers. Our factory can design and assort thisseries of products for electrical motor productions.
AR: as rolled, NR normalized rolling, N, normalizing, T, tempering, Q, quenching, A annealing, TMCP therme-mechanical controlprocess.size:thickness 0.2-600mm, width 320-3600mm (Other size can be made according to your order)
Bellows expansion joints, hoses: GB/T 14525-93《General specification for corrugated metallic hose assembiles》GB/T 12777-1999《General specification for metal bellows expansion joints》GB/T 12522-1996《Stainless steelbellows expansion joints》Appliable to national defencse researching,mechanical industry,petrochemical industry,power prospectingand instrument industryand are also needas fittings of pneumatic tools,among which,traffic,shipping,etc.
FlangeASME B16.5Standard Pipe Flanges up to and including 24 inches nominalASME B16.47 Standard Pipe Flanges above 24 inchesThe gasket type and bolt type are generally specified by the standard(s); however, sometimes the standards refer to the ASMEBoiler and Pressure Vessel Code (B&PVC) for details (see ASME Code Section VIII Division 1 - Appendix 2). These flanges arerecognized by ASME Pipe Codes such as ASME B31.1 Power, and ASME B31.3 Process Piping.
Materials for flanges are usually under ASMEdesignation: SA-105 (Specification for Carbon Steel Forgings for Piping Applications) ,SA-266 (Specification for Carbon Steel Forgings for Pressure Vessel Components) or SA-182 (Specification for Forged or RolledAlloy-Steel Pipe Flanges, Forged Fittings, and Valves and Parts for High-Temperature Service).
1. Type: welding neck flange, lap joint flange, thread flange, slip on flange, blind flange2. Material: carbon steel, stainless steel and alloy steel3.Standard: ANSI, JIS, BS, DIN,UNI, EN, GB, AWWA, API, MSS, LWN, Orifice, 8-Figure flange4. Size: OD up to 5000mm5. Pressure: 75bls to 2500bls6. Marking: Require7. Painting: yellow, black . oil and Zn8. Inspection: in-house and the third party
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52525252 General Catalogue
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