Bronze БрК3Мц1 (Brkmc3-1)
Bronze БрХ0,6Цр0,05 (БрХЦр0,6-0,05)
Bronze BrN10,5A0,5 (BrNA10,5-0,5)
Bronze БрН2,5Х0,7К0,6 (БрНХК2,5-0,7-0,6)
Bronze БрН5Мц2Т0,1 (БрНМцТ5-2-0,1)
BrNTsr bronze
Bronze BrSr0,1
Bronze БрТ5Х0,5 (БрТХ5-0,5)
Bronze БрХ0,2Нб0,1 (Alloy 204А; БрХНб0,2-0,1)
Bronze БрХ0,3Цр0,09 (БрХЦр0,3-0,09)
Bronze БрХ0,4Ко0,4Кр0,2Мг0,04 (Alloy №50)
Bronze БрХ0,4Нб0,25 (Alloy 204; БрХНб0,4-0,25)
Bronze БрХ0,5В0,2Цр0,2 (ХВЦр0,5-0,2-0,2)
Bronze БрХ0,6Т0,5 (БрХТ0,6-0,5)
Bronze BrMc5
BrCr0.7 bronze
Bronze БрХ0,8
Bronze BrX1
Bronze BrC1Cr
Bronze BrChNb
Bronze BrCNT
Bronze BrCrK
Bronze BrCrTV
Bronze BrCr0,2
Bronze BrCr0,3
Bronze BrCr0,4
Bronze BrCr0.7
Bronze БрА9Ж4Н4Мц1 (БрАЖНМц9-4-4-1)
Bronze BrB2
Bronze БрАЖ1,5 (БрАЖ10-1,5)
Bronze БрААЖ3Мц1,5 (БрАЖМц10-3-1,5)
Bronze БрААЖ10Ж4Н4 (БрАЖН10-4-4)
Bronze БрАА10Мц2 (БрАМц10-2)
Bronze BrA5
Bronze БрА6Мг1 (БрАМг6-1)
Bronze BrA7
Bronze БрА8,5Ж4Н5Мц1,5 (БрАЖНМц8,5-4-5-1,5)
Bronze БрАА9Ж4 (БрАЖ9-4)
Bronze БрА9Мц2 (БрАМц9-2)
Bronze БрБ1,7НТ (БрБНТ1,7)
Bronze БрБ1,9НТ (БрБНТ1,9)
Bronze БрБ1,9НТМг (БрБНТ1,9Мг)
Bronze BrN1,5Kr0,5 (BrNKr1,5-0,5)
Bronze BrB2,5
Bronze БрК0,4Х0,6Кo1,6 (БрКХКo0,4-0,6-1,6)
Bronze BrK1H3 (BrKN1-3)
Bronze БрК3Мц1 (БрКМц3-1)
Bronze BrKd0,5X0,15 (BrKdX0,5-0,15)
Bronze BrKd1
BrKo3Mts10 (BrKoMts3-10) bronze
Bronze BrMg0.03Cr0.035 (BrMgCr0.03-0.035)
Bronze BrMg0,3
Bronze BrMg0,5
Bronze BrMg0,8
Bronze BrMc12A8Zh3N2 (BrMcAzHN12-8-3-2)
Designation
| Name |
The value |
| Designation GOST Cyrillic |
БрК3Мц1 |
| Designation GOST Latin |
BpK3Mts1 |
| Transliteration |
BrK3Mts1 |
| The chemical elements |
BaCo3Mn1 |
| Name |
The value |
| Designation GOST Cyrillic |
БрКМц3-1 |
| Designation GOST Latin |
BpKMts3-1 |
| Transliteration |
BrKMts3-1 |
| The chemical elements |
BaCoMn3-1 |
Description
Bronze БрК3Мц1 used: for the manufacture of semi-finished products (strips, bands, bars and wire); parts of all kinds for chemical apparatus; springs and spring parts; parts for shipbuilding; welded structures; round welding wire and welding rods round drawn and extruded with a diameter of from 1.2 to 8.0 mm, designed for manual welding in shielding gases, non-rigid structures made of copper and automatic copper welding under flux.
Note
Corrosion resistant silicon-manganese heat resisting bronze, is suitable for welding and has high resistance to compression.
Analogue of bronze Brkmc3−1 (БрК3Мц1) at CMEA 377−76 is bronze CuSi3Mn1.
Standards
| Name |
Code |
Standards |
| Welding and cutting of metals. Soldering, riveting |
В05 |
GOST 16130-90 |
| Bars |
В55 |
GOST 1628-78, OST 4.021.021-92, OST 4.021.038-92, OST 4.021.042-92, TU 48-21-60-80 |
| Non-ferrous metals, including rare metals, and their alloys |
В51 |
GOST 18175-78, GOST 28873-90, OST 4.021.009-92 |
| Sheets and stripes |
В53 |
GOST 4748-92, OST 4.021.068-92 |
| Wire of non-ferrous metals and their alloys |
В74 |
GOST 5222-72, GOST Р 54150-2010, OST 4.021.106-92, OST 4.021.113-92 |
| Tapes |
В54 |
OST 4.021.081-92, TU 48-21-234-85 |
Chemical composition
| Standard |
Mn |
Si |
Ni |
Fe |
Cu |
Zn |
Sn |
Pb |
| GOST 18175-78 |
1-1.5 |
2.7-3.5 |
≤0.2 |
≤0.3 |
The rest |
≤0.5 |
≤0.25 |
≤0.03 |
| GOST 16130-90 |
1-1.5 |
2.7-3.5 |
≤0.2 |
≤0.3 |
The rest |
≤0.5 |
≤0.25 |
≤0.03 |
Cu is the basis.
According to GOST 18175-78, the total mass fraction of normalized impurities is ≤ 1.0%. According to the manufacturer's agreement with the consumer, up to 2.0% of iron is allowed without taking it into account in the total amount of impurities, and also the content of impurities of arsenic, antimony and phosphorus can be normalized.
Mechanical characteristics
| Section, mm |
sT|s0,2, MPa |
σB, MPa |
d5, % |
d10 |
Brinell hardness number, MPa |
| Band of 1.8-10.0 mm as supplied by OST 4.021.068-92 (samples transverse) |
| - |
- |
≥350 |
- |
≥35 |
- |
| - |
- |
≥760 |
- |
- |
- |
| - |
270-500 |
470-590 |
- |
≥10 |
- |
| - |
500-740 |
590-760 |
- |
≥5 |
- |
| Strip and cold-rolled strips, as supplied by the 4748-92 GOST, OST 4.021.081-92 (samples transverse) |
| ≥0.5 |
- |
≥350 |
- |
≥35 |
- |
| 0.1-0.15 |
- |
≥350 |
- |
- |
- |
| 0.15-0.45 |
- |
≥350 |
- |
≥28 |
- |
| ≥0.1 |
- |
≥760 |
- |
- |
- |
| ≥0.5 |
- |
470-590 |
- |
≥10 |
- |
| 0.1-0.15 |
- |
470-590 |
- |
- |
- |
| 0.15-0.45 |
- |
470-590 |
- |
≥5 |
- |
| ≥0.5 |
- |
590-760 |
- |
≥5 |
- |
| 0.1-0.15 |
- |
590-760 |
- |
- |
- |
| 0.15-0.45 |
- |
590-760 |
- |
≥2 |
- |
| Square cold-drawn wire, General purpose, solid (untreated) supplied by OST 4.021.113-92 (longitudinal samples) |
| 0.6-1 |
- |
≥880 |
- |
- |
- |
| 1.2-2.5 |
- |
≥880 |
- |
≥0.5 |
- |
| 3 |
- |
≥830 |
- |
≥1 |
- |
| The round cold-drawn wire, General purpose, solid (untreated) supplied by OST 4.021.106-92 (longitudinal samples) |
| 0.1-1 |
- |
≥880 |
- |
- |
- |
| 1.1-2.6 |
- |
≥880 |
- |
≥0.5 |
- |
| 2.8-4.2 |
- |
≥830 |
- |
≥1 |
- |
| 4.5-8 |
- |
≥810 |
- |
≥1.5 |
- |
| 8.5-10 |
- |
≥760 |
- |
≥2 |
- |
| Rods are supplied according to GOST 1628-78. 4.021.021-92 (longitudinal samples) |
| 30-100 |
- |
≥390 |
- |
≥15 |
- |
| 30-120 |
- |
≥340 |
- |
≥20 |
≥65 |
| 13-41 |
- |
≥490 |
- |
≥15 |
≥150 |
| 5-12 |
- |
≥490 |
- |
≥10 |
≥150 |
| Bars drawn square to EAST 4.021.038-92 (longitudinal samples) |
| 14 |
- |
≥490 |
≥15 |
- |
≥150 |
| 5-12 |
- |
≥490 |
≥10 |
- |
≥150 |
| Bars drawn on hex OST 4.021.042-92 (longitudinal samples) |
| 14 |
- |
≥490 |
≥15 |
- |
≥160 |
| 5-12 |
- |
≥490 |
≥10 |
- |
≥160 |
Description mechanical marks
| Name |
Description |
| Section |
Section |
| sT|s0,2 |
Yield strength or limit of proportionality with a tolerance for residual deformation of 0.2% |
| σB |
Limit short-term strength |
| d5 |
Elongation after rupture |
| d10 |
Elongation after rupture |
Physical characteristics
| Temperature |
Е, ГПа |
r, кг/м3 |
l, Вт/(м · °С) |
R, НОм · м |
| 20 |
115 |
8470 |
46 |
250 |
A description of the physical symbols
| Name |
Description |
| Е |
The normal elasticity modulus |
| r |
Density |
| l |
Coefficient of thermal conductivity |
| R |
UD. the resistivity |