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- EB65 Bushing-CuZn25Al6FeMn3 EB65/CuZn25Al6FeMn3 EB66/CuSn5Pb5Zn5 EB85/CuAl10Ni EB80/CuSn12 EB88
EB65 Bushing-CuZn25Al6FeMn3 EB65/CuZn25Al6FeMn3 EB66/CuSn5Pb5Zn5 EB85/CuAl10Ni EB80/CuSn12 EB88

Cu%:
65,65,85,80,88
Dengity g/cm ^3:
8.0,8.0,8.8,8.3,8.8
Hardness:
>210,>180,>70,>150,>80
Tensile Strength:
>750,>550,>200,>500,>360
Elongation:
>12,>12,15,>10,>8
Limit Temp.:
300~400,300~400,400,400,400
Max. Load N/mm^2:
100,80,60,50,70
Max. Speed m/min:
15,15,10,20,10
Max. PV N/mm^2·m/min:
200
Product Detail
Bearings Features
1. Flexible design, simple, convenient with wide applicationsThe designing of oil-feeding system is both a labor consuming and time consuming job. Therefore, the neglecting of oil-feeding apparatus in the designing of solid Iubricant bearings saves the cost of oil-feeding apparatus. Besides, for various specific circumstances, the solid lubricant bearings can be designed into various types to meet the requirements thereof. The use of solid lubricant bearings can greatly reduce the cost of mechanical maintenance and oil.
2. FunctionaI in absence of oiI
Since the Iinear expansibility of solid Iubricant is greater than metallic matrix's, when the movement of solid lubricant bearings(SLB)start, the Iubricant is transferred onto the parts in abrasion thus realizing the self-lubrication. Therefore, the SLBs can be used in circumstances where oiling and greasing is difficult or impossible and they perform excellent Iubrication even under low-speed and high Ioad circumstances.
3. Cost efficiency
The traditional mechanical designing requires frequent oiling maintenance; oil gauge check shall be performed to ensure the passage of oil supplying apparatus is clear. Since the periodical oiling can cause pollution to the machines themselves as welI as to the ambient surroundings, resulting in an increase of the maintenance cost,the realization of self-lubrication can not only make the environment clean but greatly reduce the Iubricating costs as well.
4. Excellent performance under high-load, Iow-speed circumstances
The SLBs are made of rotationaI cast high-strength copper as the matrix, which functions as Ioad bearers.Besides, SLBs use specially formulated graphite as Iubricant, ensuing excellent self-lubrication. Combining the advantages of both the matrix and Iubricant, SLBs are capable of exert their wonderfuI performance in circumstances with high load and low speed.
5. In circumstances where it is difficult for the oiI films to generate, such as the alternative movements, swinging movements and frequent on-and-off, SLBs highlights their excellent resistance to abrasion. As the principle of the arrangement of SLB Iubricant is to ensure that each part of the equipment is involved in the Iubrication throughout the movement, the Iocation of the Iubricant shalI be determined according to the movement direction of the parts in abrasion.
6. Excellent chemical resistance and corrosion resistance
The Iubricant for SLB is formulated out of the abrasion-resistant materials such as graphite and PTEE and has stabilized molecular structure. The metallic matrix can be selected according to the various chemicaI resistance and corrosion resistance accordingly. Therefore, the SLB enjoys high chemicaI resistance and corrosion resistance.
7. The cost of the products is more competitive and compared with other products of the same kind, the SLB features in longer service hours, less maintenance, longer replacement period and better performance.
EB65 Main Base Alloy
Phy. Performance. & Chemical Compositions | CuZn25Al6FeMn3 EB65 | CuZn25Al6FeMn3 EB66 | CuSn5Pb5Zn5 EB85 | CuAl10Ni EB80 | CuSn12 EB88 | Cast Iron HT250 EB00 |
Cu% | 65 | 65 | 85 | 80 | 88 | |
Sn% | 5 | 12 | ||||
Pb% | 5 | |||||
Zn% | 25 | 25 | 5 | |||
Ni% | 5 | |||||
Al% | 6 | 6 | 10 | |||
Fe% | 5 | |||||
Mn% | 4 | 4 | ||||
Dengity g/cm 3 | 8.0 | 8.0 | 8.8 | 8.3 | 8.8 | 7.3 |
Hardness | >210 | >180 | >70 | >150 | >80 | >160 |
Tensile Strength | >750 | >550 | >200 | >500 | >360 | >250 |
Elongation | >12 | >12 | 15 | >10 | >8 | |
Coeicient of linear expansion | 1.9·10 -5 /℃ | 1.9·10 -5 /℃ | 1.8·10 -5 /℃ | 1.6·10 -5 /℃ | 1.8·10 -5 /℃ | 1.0·10 -5 /℃ |
Limit Temp. | 300~400 | 300~400 | 400 | 400 | 400 | 400 |
Max. Load N/mm 2 | 100 | 80 | 60 | 50 | 70 | 10 |
Max. Speed m/min | 15 | 15 | 10 | 20 | 10 | 15 |
Max. PV N/mm2·m/min | 200 | 200 | 200 | 200 | 200 | 40 |
400N/mm2 | <0.01 | <0.01 | <0.05 | <0.04 | <0.05 | <0.015 |
Friction of coe. Oil 0.03; Dry 0.16
EB65 Alloy International Code
Chinese Code GB1776-87 | International counterparts | Applications | |||
International ISO 1338 | Japan Jis | (USA) ASTM (UNS) | German DIN | ||
CuZn25AI6FeMn3 | CuZn25AI6FeMn3 | H5102 CAC304 | B30-92 C86300 | DIN1709 G-CuZn25A/2.0598 | High-load, low speed, general use |
CuZn25AI6FeMn3 | CuZn25AI6FeMn3 | H3102 CAC304 | B30-92 C86300 | DIN1709 G-CuZn25A/2.0598 | Super high load, low-speed, high duty |
CuAI10Fe3 | CuAI10Fe3 | H5114 CAC703 | B30-92 95800 | DIN1714 GB-CuAI10NI/2.1096 | Medium load, medium-speed, general use |
CuSn5Pb5Zn5 | QSn5-5-5 | H5111 CAC406 | B30-92 C83600 | DIN1705 G-Cu5n5ZnPb/2.1096 | Medium load, medium-speed |
DB5675-85 HT250 | Fe250 | ASTM class40 | low-load, low-speed |
Metal Plastic Composite Series Sliding Bearing, Bimetal Series Bearing, Single Metal Series Sliding Bearing