GOST ISO 4383-2006
GOST ISO 4383−2006 Bearings. Multilayer materials for thin-walled plain bearings
GOST ISO 4383−2006
Group Г16
INTERSTATE STANDARD
Bearings
MULTILAYER MATERIALS FOR THIN-WALLED PLAIN BEARINGS
Plain bearings. Multilayer materials for thin-walled plain bearings
ISS 21.100.10
OKP 41 7000
Date of introduction 2009−07−01
Preface
Goals, basic principles and main procedure of works on interstate standardization have been established in GOST 1.0−92 «interstate standardization system. Basic provisions» and GOST 1.2−97 «interstate standardization system. Interstate standards, rules and recommendations on interstate standardization. The procedure of development, adoption, application, renewal and cancellation"
Data on standard
1 PREPARED by the Russian research Institute of standardization and certification in engineering (VNIINMASH) of the Federal Agency for technical regulation and Metrology on the basis of their own authentic translation of the standard referred to in paragraph 4
2 recorded by the Interstate technical Committee for standardization MTK 344 «plain Bearings"
3 ACCEPTED by the Interstate Council for standardization, Metrology and certification (Protocol No. 29 of June 24, 2006)
The adoption voted:
Short name of the country on MK (ISO 3166) 004−97 |
Country code by MK (ISO 3166) 004−97 |
Abbreviated name of the national authority for standardization |
Azerbaijan |
AZ | Azstandart |
Armenia |
AM | |
Belarus |
BY | Gosstandart Of The Republic Of Belarus |
Georgia |
GE | Gosstandart |
Kazakhstan |
KZ | Gosstandart Of The Republic Of Kazakhstan |
Kyrgyzstan |
KG | Kyrgyzstandard |
Moldova |
MD | Moldova-Standard |
Russian Federation | EN | Federal Agency on technical regulation and Metrology |
Tajikistan | TJ | Tajikstandart |
Turkmenistan | TM | The MDCSU «Turkmenstandartlary" |
Uzbekistan | UZ | Uzstandard |
Ukraine | UA | Derzhspozhyvstandart Of Ukraine |
4 this standard is identical with ISO 4383:2000 «plain Bearings. Multilayer materials for thin-walled plain bearings» (ISO 4383:2000 «Plain bearings. Multilayer materials for thin-walled plain bearings», IDT)
5 by Order of the Federal Agency for technical regulation and Metrology dated December 25, 2008 N 685-St interstate standard GOST ISO 4383:2006 promulgated as the national standard of the Russian Federation from July 1, 2009
6 REPLACE GOST 28813−90
Information about introduction in action (termination) of this standard is published in the index «National standards».
Information about the amendments to this standard is published in the index «National standards», and the text changes — in the information sign «National standards». In case of revision or cancellation of this standard the appropriate information will be published in the information index «National standards»
1 Scope
This standard specifies the basic requirements for multilayer materials used for the manufacture of thin-walled plain bearings (liners, bushings, thrust washers). The layered material consists of steel backing and a layer of bearing material (cast, sintered, rolled). Possible running-the layer obtained by electrolytic deposition.
Note — the environmental Impact will limit the use of certain materials such as lead.
2 Normative references
The present standard features references to the following international standards:
ISO 4381−2000Bearings. Swinoujscie and tin casting alloys for multilayer plain bearings
________________
The translation of the international standard is the Federal information Fund of technical regulations and standards.
ISO 4382−1-1991Bearings. Copper alloys. Part 1. Cast copper alloys for solid and multilayer thick-walled plain bearings
________________
The translation of the international standard is the Federal information Fund of technical regulations and standards.
ISO 6691−2000Thermoplastic polymers for plain bearings. Classification and marking
________________
The translation of the international standard is the Federal information Fund of technical regulations and standards.
ISO 4384−1-82 Bearings. Test the hardness of bearing materials. Part 1. Composite materials [GOST 29212−91 (ISO 4384−1-82), IDТ]
3 Technical requirements
3.1 Chemical composition of the bearing layer
The chemical composition of materials must meet the requirements listed in tables 1 to 5, where single numbers represent maximum values.
Table 1 — Alloys of lead and tin (see ISO 4381)
Chemical element |
Chemical composition, % | |||
PbSb10Sn6 |
PbSb15SnAs | PbSb15Sn10 | SnSb8Cu4 | |
Pb |
The rest | The rest | The rest | 0,35 |
Sb |
9−11 | 13,5−15,5 | 14−16 | 7−8 |
Sn |
5−7 | 0,9−1,7 | 9−11 | The rest |
Si |
0,7 | 0,7 | 0,7 | 3−4 |
As |
0,25 | 0,8−1,2 | 0,6 | 0,1 |
Bi |
0,1 | 0,1 | 0,1 | 0,08 |
Zn |
0,01 | 0,01 | 0,01 | 0,01 |
Al |
0,01 | 0,01 | 0,01 | 0,01 |
Fe |
0,1 | 0,1 | 0,1 | 0,1 |
Other items |
0,2 | 0,2 | 0,2 | 0,2 |
Table 2 — Alloys based on copper
Chemical element | Chemical composition, % | ||||
CuPb10Sn10 |
CuPb17Sn5 (G — cast) |
CuPb24Sn4 (G — cast, R — sintered) |
CuPb24Sn (G — cast, R — sintered) |
СuРb30 (R — sintered) | |
Si | The rest |
The rest | The rest | The rest | The rest |
Pb | 9−11 |
14−20 | 19−27 | 19−27 | 26−33 |
Sn | 9−11 |
4−6 | 3−4,5 | 0,6−2 | 0,5 |
Zn | 0,5 |
0,5 | 0,5 | 0,5 | 0,5 |
R | 0,1 |
0,1 | 0,1 | 0,1 | 0,1 |
Fe | 0,7 |
0,7 | 0,7 | 0,7 | 0,7 |
Ni | 0,5 |
0,5 | 0,5 | 0,5 | 0,5 |
Sb | 0,5 |
0,5 | 0,5 | 0,5 | 0,5 |
Other items |
0,5 | 0,5 | 0,5 | 0,5 | 0,5 |
The chemical composition of this alloy differs from the alloy for solid and thick-walled sliding bearings (see ISO 4382−1). |
Table 3 — Alloys based on aluminium
Chemical element | Chemical composition, % | |||
AISn20Cu | AISn6Cu | AISn11Cu | AIZn5Si1, 5Cu1Pb1Mg | |
AI |
The rest | The rest | The rest | The rest |
Si |
0,7−1,3 | 0,7−1,3 | 0,7−1,3 | 0,8−1,2 |
Sn |
16,5−22,5 | Of 5.5−7 | 0,2 | 0,2 |
Ni |
0,1 | 1,3 | 0,1 | 0,2 |
Si |
0,7 |
0,7 |
10−12 | 1−2 |
Fe |
0,7 |
0,7 |
0,3 | 0,6 |
Mn |
0,7 |
0,7 |
0,1 | 0,3 |
Ti |
0,2 | 0,2 | 0,1 | 0,2 |
Pb |
- | - | - | 0,7−1,3 |
Zn |
- | - | - | 4,4−5,5 |
Mg |
- | - | - | 0,6 |
Other items |
0,5 | 0,5 | 0,3 | 0,4 |
The total content of Si+Fe+Mn should not exceed 1%. |
Table 4 — Run the surface of the sintered bronze with polymer
Chemical element | Chemical composition, % | ||||
CuSn10 |
CuPb10Sn10 | ||||
Si | The rest |
The rest | |||
Pb | - |
9−12 | |||
Sn | 9−12 |
9−12 | |||
R | 0,3 |
0,3 | |||
Other items | 0,5 |
0,5 | |||
The run-in surface and polymer, impregnated with filler from friction and wear (see ISO 6691) |
PTFE | RUM | PVDF | PTFE | PVDF |
Porous sintered bronze |
Porosity 20% — 45% |
Table 5 — Bedded layers
Chemical element | Chemical composition, % | ||
PbSn10Cu2 |
PbSn10 | Рbln7 | |
Pb | The rest |
The rest | The rest |
Sn | 8−12 |
8−12 | - |
Si | 1−3 |
- | - |
In | - |
- | 5−10 |
Other items | 0,5 |
0,5 | 0,5 |
3.2 Steel Foundation
Chemical composition of steel for the base is determined by agreement between the manufacturer and the consumer. Mainly used mild steel.
For composite materials, bronze / polymer indicated in table 4, as the basis can be used steel with a copper coating.
3.3 Bearing layer
Bearing layer based on tin and lead must meet the requirements specified in table 1.
The bearing layer of copper-base shall conform to the requirements specified in table 2.
Bearing layer on the basis of aluminum shall conform to the requirements specified in table 3.
Bearing layer on the basis of sintered bronze and polymers must meet the requirements specified in table 4.
Note — Developed new materials based on aluminum, containing aluminum and silicon or manganese, as well as soft materials such as lead or tin.
3.4 Running-the layer corresponding to the requirements specified in table 5, can be used for bearing layers, as shown in table A. 2.
The thickness of the running-layer and any intermediate layers between the bearing layer and running-in layer is determined by agreement between the manufacturer and the consumer.
3.5 Properties and selection of materials
Recommendations on the hardness of the bearing material in the form of a strip and the use of bearing materials is given in Appendix A.
4 Marking
Example of designation of a layered material consisting of a steel framework, cast (G) CuPb24Sn bearing alloy layer and the running-PbSn10Cu2:
Bearing alloy GOST ISO 4383−2006 -G — CuPb24Sn — PbSn10Cu2
Annex a (informative). Recommendations on properties and selection of materials
Appendix A
(reference)
Table A. 1 — Hardness of the bearing material in the form of a strip
Bearing alloy |
Cast | Sintered | Laminated and annealed | Special treatment |
PbSb10Sn6 |
19−23HV | - | - | 15 -19HV |
PbSb15SnAs |
16−20HV | - | - | - |
PbSb15Sn10 |
18−23HV | - | - | - |
SnSb8Cu4 |
17−24HV | - | - | - |
CuPb10Sn10 |
70−130 NV | 60−90 NV | - | NV 60−140 |
CuPb17Sn5 |
60−95 NV | - | - | - |
CuPb24Sn4 |
60−90 NV | 45−70 NV | - | 45−120 NV |
CuPb24Sn |
55−80 NV | 40−60 NV | - | 40−110 NV |
СuРb30 |
- | 30−45 NV | - | - |
AISn20Cu |
- | - | 30−40 NV | 45−60 NV |
ALSn6Cu |
- | - | 35−45 NV | - |
AISi11Cu |
- | - | 45−60 NV | - |
AIZn5Si1, 5Cu1Pb1Mg |
- | - | 45−70 NV | 70−100 HB |
Note — the hardness Value can be increased by rolling with a small compression. Tests carried out in accordance with ISO 4384−1. |
Table A. 2 — Recommendations on the use of bearing materials and the choice of hardness of the mating parts of the bearing (shaft)
Bearing alloy (the running-layer) |
Characteristics and recommendations for use in high speed engines | The minimum hardness of the shaft |
PbSb10Sn6 PbSb15SnAs PbSb15Sn10 |
Soft, resistant to corrosion, has a relatively good performance with imperfect lubrication, low fatigue strength, working with hard and soft shafts. Slightly loaded with indigenous and connecting rod bearings, bushings, thrust washers |
180 NV |
SnSb8Cu4 | Soft, resistant to corrosion, has the best performance among all of the bearing alloy with an imperfect lubrication, low fatigue strength, working with hard and soft shafts. Slightly loaded with indigenous and connecting rod bearings, bushings, thrust washers |
220 NV |
CuPb10Sn10 | Very high fatigue strength and considerable resistance to shock loads, good resistance to corrosion, preferably with solid shafts. Wrapped bushes, thrust washer, bushing upper connecting rod |
53 HRC |
CuPb17Sn5 | Very high fatigue strength and considerable resistance to shock loads, is used with solid shafts are usually used with the running-in coating in the bearings. Heavily loaded main bearings and the rod bearings, bushings, thrust washers |
50 HRC |
CuPb24Sn4 | High fatigue strength and impact resistance, used for high-speed shafts, performing oscillatory or rotational movement, works with solid shafts are usually covered by the running-in coating when used as a bearing. Wrapped bushings, thrust washers, main bearings and the rod bearings |
48 HRC |
CuPb24Sn | High fatigue strength cast alloy, satisfactory, and high fatigue strength sintered alloy, usually covered by the running-in alloy, when used as a bearing, and in this case can work with hard and soft shafts, susceptible to corrosion when using waste grease running-in the absence of the coating. Indigenous and connecting rod bearings, thrust washers |
45 HRC |
СuРb30 | The average fatigue strength, good resistance to corrosion when using waste grease and lack of running-cover work with hard shafts while running-safety coverage. Indigenous and connecting rod bearings, wrapped bushing |
270 NV |
AISn20Cu | The average fatigue strength, good resistance to corrosion, relatively good performance in critical lubrication conditions, can operate with soft shafts. Indigenous and connecting rod bearings, thrust washer, wrapped bushing |
250 HB |
AISn6Cu | The average fatigue strength, good resistance to corrosion, is usually covered by the running-in coating and is used with hard shafts. Indigenous and connecting rod bearings, wrapped bushing |
45 HRC |
AISi11Cu | High fatigue strength, usually used with the running-in coatings, works with hard and soft shafts. Indigenous and connecting rod bearings |
50 HRC |
AIZn5Si1, 5Cu1Pb1Mg | High fatigue strength, usually used with the running-in coatings, works with hard and soft shafts. Indigenous and connecting rod bearings |
45 HRC |
PbSn10Cu2 PbSb10 Pbln7 |
The fatigue strength depends on the thickness, soft, good resistance to corrosion, relatively good performance in critical lubrication conditions. Applies to indigenous and connecting rod bearings manufactured from alloys based on copper/lead and alloys high-strength aluminum-based |
- |
Hardness values for material of the shaft are minimal and are valid for application in high-speed machines. Operating conditions, particularly lubrication conditions, play a significant role, therefore it may be necessary for a significant difference in hardness between the bearing material and the shaft. |