vierkantrohr st 52-3
1.0570 Material,St52-3 Steel Equivalent,st52-3,st52.3,st52.3n,st 52-3 n,st52-3n,st52-3 material,st52-3 equivalent,st52-3 equivalent grade,st 52-3 neue bezeichnung,st52-3k,st52-3 chemical composition,steel st52-3,st52.3 steel,st52-3 material equivalent,st52-3 steel,st52-3 datenblatt,st52-3 equivalent in indian standard,st52-3 steel equivalent,steel st52-3 equivalent,st52-3 material properties,st52-3 grade specification,1.0570 st 52-3,st52-3 odpowiednik,din st52-3,din st52.3,st52-3 werkstoffnummer,st52-3n material properties,st52-3n material,st52-3 u,st52-3 steel plate,st52.3 tube,werkstoff st52-3,st52-3 material specification,st52-3 tube,st52-3 eigenschappen,st52-3 equivalent sae,st52-3 plate,st52-3 steel equivalent astm,st52-3 steel chemical composition,st52-3 hardness,st52-3 jis
gangsteel produced and exported DIN 1.0570 and ST 52-3 steel plate as common carbon structural steel. Gangsteel supply DIN17100 ST52-3 ST52-3N Steel plate low alloy and high strength steel plate. DIN 17100 ST52-3 steel plate price and stock supplier.ST 52-3 steel plate is one mainly of Carbon structural steel, ST 52-3 is a type of steel sheet under DIN standard which is used to build ship, bridge, belongs to high strength sheet.
If you have any requirement for ST 52-3 structure steel plate,under DIN17100 standard ST 52-3 steel plate, under DIN17100 standard, please contact us.
1.Steel Grade : ST 52-3 (1.0570)
2. Standard: DIN 17100 steels for general structural purposes
3. Approval By Third Party :ABS, DNV, GL, CCS, LR , RINA, KR, TUV, CE
4. Classification: General structural purposes
5. Product form : super heavy steel plate
A parameter given by way of the maximum regular stress range and the hydrostatic stress vary is found to correlate fatigue lives reasonably properly. This parameter accurately predicts the experimental development that in-section loading is extra damaging than out-of-phase DIN 17100 ST 52-3 loading underneath a given ratio of axial/shear stress amplitudes. Models for tensile and compressive mean stress effects have also been proposed based mostly on the uniaxial check results. effect, depending on the plastic strain previous to unloading.
Multiaxial fatigue standards are applied to the evaluation of helical compression springs. The critical airplane approaches, Fatemi–Socie and Wang–Brown, and the Coffin–Manson technique based on shear deformation, have been used to foretell fatigue lives of the springs beneath constant amplitude loading. Experimental fatigue lives are compared with the multiaxial fatigue criteria predictions. The stress evaluation was carried out within the finite component code ANSYS, and the multiaxial fatigue examine was performed using the fatigue software program nCode. A failure evaluation was conducted in order to determine the fatigue crack initiation point and a comparison of that location with essentially the most broken zone predicted by the numerical analysis is made.
w.nr. 1.0570
The proposed concept considers the combined effect of load mean stresses and cyclically stabilized residual stresses. It is pointed out that the yield strength isn’t a succesful measure to find out whether residual stresses have “low” or “extreme” impact on the fatigue strength of welded steels. It is quite really helpful to evaluate residual stress results based mostly on the effective stress ratio reflecting native loading conditions.
DIN17100 ST52-3 ST52-3N Steel plate Chemical composition of heat analysis:
|
DIN |
ASTM |
EN |
JIS |
Chemical Composition |
C.E. |
||||||||||
|
C |
Si |
Mn |
Cr |
Mo |
Ni |
V |
W |
S |
P |
CU |
|||||
|
17100 St52-3N |
A572-50 |
10025-2:2004 S355J2+N |
G3106 SM490YB |
max 0.22 |
max 0.55 |
max 1.60 |
– |
– |
– |
– |
– |
max 0.035 |
max 0.035 |
– |
max 0.047 |
St52-3 steel data sheet – 2, Chemical composition (product analysis) according to DIN 17100 and DIN EN 10025: 1993.
|
Chemical Composition (product analysis), %, ≤ |
|||||||||||
|
Country (Region) |
Standard |
Steel Grade (Steel number) |
C |
Si |
Mn |
P |
S |
N |
Cu |
Thickness (d) (mm) |
Method of deoxidation |
|
Germany |
DIN 17100: 1980 |
St52-3 (1.0570) |
0.22 |
0.60 |
1.70 |
0.065 |
0.065 |
– |
≤ 30 |
Fully Killded |
|
|
0.24 |
30 <d ≤100 |
||||||||||
|
European Union |
EN 10025: 1993 |
S355J2G3 (1.0570) |
0.22 |
0.60 |
1.70 |
0.045 |
0.045 |
– |
≤ 30 |
||
|
0.24 |
30 <d ≤100 |
||||||||||
|
EN 10025-2: 2004 |
S355J2 (1.0577) |
0.22 |
0.60 |
1.70 |
0.035 |
0.035 |
– |
0.60 |
≤ 30 |
||
|
0.24 |
30 <d ≤100 |
||||||||||
St52-3 Steel Properties
Physical Properties
- Material St 52-3 Density: 7.85 g/cm3
- Melting point: 1420-1460 °C (2590-2660 °F)
DIN17100 ST52-3 ST52-3N Steel plate mechanical properties steel plate
|
Thickness (mm) |
Yield Strength Reh min (N / mm2) |
Tensile Strength Rm min (N / mm2) |
Elongation A5 min (%) |
Impact Values Charpy-V-Notch Longitudinal Average from 3 Speimens Thk. >10<150mm. |
|
3<thk<100 |
315-355 |
490-630 |
max 22 |
27 Joules at -20 C |
St52-3 steel data sheet – 1, Chemical composition (ladle analysis) according to DIN 17100 and DIN EN 10025: 1993.
|
Chemical Composition (ladle analysis), %, ≤ |
|||||||||||
|
Country (Region) |
Standard |
Steel Grade (Steel number) |
C |
Si |
Mn |
P |
S |
N |
Cu |
Thickness (d) (mm) |
Method of deoxidation |
|
Germany |
DIN 17100: 1980 |
St52-3 (1.0570) |
0.20 |
0.55 |
1.60 |
0.040 |
0.040 |
– |
≤ 30 |
Fully Killded |
|
|
0.22 |
30 <d ≤100 |
||||||||||
|
European Union |
EN 10025: 1993 |
S355J2G3 (1.0570) |
0.20 |
0.55 |
1.60 |
0.035 |
0.035 |
– |
≤ 30 |
||
|
0.22 |
30 <d ≤100 |
||||||||||
|
EN 10025-2: 2004 |
S355J2 (1.0577) |
0.20 |
0.55 |
1.60 |
0.025 |
0.025 |
– |
0.55 |
≤ 30 |
||
|
0.22 |
30 <d ≤100 |
||||||||||
DIN17100 ST52-3 EQUIVALENT STEEL GRADES
| EN 10025 – 2 |
EN 10025+A1 |
?SN |
DIN 17100 |
||
|
EN10027-1 |
EN10027-2 |
EN10027-1 Grade |
EN10027-2 Grade |
|
|
|
S235JR2 |
1.0038 |
S235JRG2 |
1.0038 |
11375 |
RSt 37-2 |
|
S235J0 |
1.0114 |
S235J0 |
1.0114 |
11378 |
St 37-3U |
|
|
– |
S235J2GR3 |
1.0116 |
11378 |
St 37-3N |
|
S235J2 |
1.0117 |
S235J2G4 |
1.0117 |
– |
– |
|
S275JR |
1.0044 |
S275JR |
1.0044 |
11443 |
St 44-2 |
|
S275J0 |
1.0143 |
S275J0 |
1.0143 |
11445 |
St 44-3U |
|
|
– |
S275J2GR3 |
1.0144 |
11448 |
St 44-3N |
|
S275J2 |
1.0145 |
S275J2G4 |
1.0145 |
– |
– |
|
S355JR |
1.0045 |
S355JR |
1.0045 |
11523 |
St 52-3 |
|
S355J0 |
1.0553 |
S355J0 |
1.0553 |
11523 |
St 52-3U |
|
|
– |
S355J2G3 |
1.057 |
11503 |
St 52-3N |
|
S355J2 |
1.0577 |
S355J2G4 |
1.0577 |
– |
– |
Material St 52-3 Datasheet – 3
|
Yield strength (≥ N/mm2); Thickness (d) mm |
||||||
|
Steel (Steel number) |
d≤16 |
16< d ≤40 |
40< d ≤63 |
63< d ≤80 |
80< d ≤100 |
>100 |
|
St52-3 |
355 |
345 |
335 |
325 |
315 |
by agreement |
Tensile Strength
Material St 52-3 Datasheet – 4
|
Tensile strength (≥ N/mm2); Thickness (d) mm |
|||
|
Steel (Steel number) |
d<3 |
3 ≤ d ≤ 100 |
>100 |
|
St 52-3 |
515-680 |
490-630 |
by agreement |
Note: 1MPa = 1N/mm2
Elongation
Material St 52-3 Datasheet – 5
|
Elongation (≥, %); Thickness (d), mm |
||||||||
|
Steel (Steel number) |
0.5 ≤d <1 |
1≤ d <1,5 |
1,5≤ d <2 |
2≤ d <2,5 |
2,5≤ d <3 |
|||
|
St52-3U |
14 |
15 |
16 |
17 |
18 |
|||
|
St52-3N |
12 |
13 |
14 |
15 |
16 |
|||
|
Elongation (≥, %); Thickness (d), mm |
||||||||
|
Steel (Steel number) |
3 ≤d ≤40 |
40< d ≤63 |
63 < d ≤100 |
>100 |
||||
|
St52-3 |
22 |
21 |
20 |
by agreement |
||||
|
St52-3N |
20 |
19 |
18 |
|||||
1.0570 und 1.0577,1.0570 rohr,1.0570 jis,1.0570+c,1.0570 din,1.0570 c45,1.0570 china,steel 1.0570 chemical composition,1.0570 material chemical composition,1.0570 density,din 1.0570 equivalent astm,en 1.0570 equivalent,en 1.0570 properties,s355j2g3 (1.0570) en 10025,1.0570 equivalent jis,din 1.0570 equivalent,din 1.0570 steel,1.0570 material composition,din 1.0570 chemical composition,1.0570+ar,1.0570 equivalent astm material,1.0570 aisi,1.0570 acciaio,1.0570 en 10025,1.0570 material equivalent in india,acero 1.0570 equivalencia,1.0570 bar,1.0570 bestellen,blacha 1.0570,1.0570 bruchdehnung,1.0570 bezeichnung,baustahl 1.0570,e-modul 1.0570,1.0570 fräsen,1.0570 in astm,was ist 1.0570,1.0570 härte hrc,1.0570 h9,1.0570 hrc,1.0570 hot rolled and normalized,jakost 1.0570,1.0570 kerbschlag,1.0570 material specification,1.0570 material density,1.0570 lieferant,1.0570 korrosion,1.0570 kaufen,1.0570 kosten,1.0570 härte,1.0570 heat treatment,1.0570 equivalent grade,steel grade 1.0570 equivalent,1.0570 festigkeit,präzi flachstahl 1.0570,1.0570 geschmiedet,1.0570 gewicht,gatunek 1.0570,1.0570 hardness,1.0570 glühen,1.0570 geschliffen,1.0570 gefüge,1.0570 material spec,
The mode of crack initiation and propagation is determined by materials, temperature, pressure range, and stress and strain histories, but not on the relative magnitude of the virtual strain-power parameters. Biaxial fatigue data obtained from the literature were analyzed for Type 304 chrome steel tested at room and elevated temperatures and for SAE 1045 steel examined at room temperature underneath in-section and ninety° out-of-phase loading circumstances. Comparisons are made between experimental knowledge and theoretical predictions to show the effectiveness of the proposed technique. A new low-cycle multiaxial fatigue life prediction methodology primarily based on the idea of an efficient shear strain is proposed. This efficient shear strain is derived by averaging the whole shear strains appearing on all planes passing by way of a material point.
The Farahani’s criterion yields probably the most satisfactory end result among the vitality criteria. Its fatigue life correlation for 1045HR steel and 304 stainless-steel fell inside elements of 2 and 3, respectively.
The cyclic pressure power density parameter W for the important or failure aircraft has been successfully applied in predicting the multiaxial fatigue life of an iron-base and a nickel-base alloy. This parameter has the benefit of being impartial of loading situation, permitting a universal energy-life curve to be determined for a variety of torsion, pressure and bending stress and pressure states.
- The proposed model, which is formulated as a generalised equal strain, takes into consideration the impact of non-symmetrical loading cycles.
- This efficient shear pressure is derived by averaging the whole shear strains performing on all planes passing by way of a fabric point.
- The axial cyclic stress-strain curve, the essential strain-life curve (Manson-Coffin) and a further life curve obtained underneath zero to pressure strain controlled axial fatigue checks are enough to permit software of the proposed criterion in all loading circumstances.
- A new low-cycle multiaxial fatigue life prediction methodology based on the idea of an efficient shear strain is proposed.
It is found that each parameters can correlate test information within an appropriate accuracy no matter which plane is used for the important plane. Garud1 (J. Test. Evaluations 1981, 9, one hundred sixty five) reviewed the results of multiaxial fatigue researches proposed as much as 1980 in chronological order and evaluated them. In this paper multiaxial fatigue researches which have been advised after 1980 have been categorised into the five viewpoints and some issues which existed in these studies were examined.
HENAN GANG IRON AND STEEL CO.LTD is a professional super steel plates/sheets manufacture and supplier. We can supply different product type of ST37-2,Ust 37-2 , Rst37-2, ST44-2, ST44-3, ST52-3, ST50-2, ST60-2, ST70-2 .If you have any need of DIN 17100 super heavy steel plate please do not hesitate to contact us .Check St 52.3 Steel Equivalent And Material, Find St52 3 Steel Round Bar Price