Multi-Swell 3760 Gaskets
Multi-Swell 3760 Gaskets.
An asbestos-free gasket sheet made from synthetic fibres and a rubber binder, built for sealing water and oil service up to 205°C and 34.5 bar.
|
Material |
Synthetic fibres with proprietary rubber binder, asbestos-free |
|
Colour |
Blue/off-white |
|
Fluid services |
Water, aliphatic hydrocarbons, oils and gasoline |
|
Temperature range |
-73°C to +205°C continuous |
|
Maximum pressure |
34.5 bar |
|
P × T (max.) |
5,100 bar × °C (1/32″ and 1/16″) / 3,400 bar × °C (1/8″) |
|
Compressibility (ASTM F36) |
15% average |
|
Recovery (ASTM F36) |
40% |
|
Creep relaxation (ASTM F38) |
30% |
|
Tensile strength, across grain (ASTM D1708) |
6.9 N/mm² |
|
Density (ASTM F1315) |
1.36 g/cm³ |
|
Leakage, Fuel A (ASTM F37B) |
0.20 ml/hr at 3.5 N/mm² gasket load |
Every gasket is cut to order, from single prototypes through to full production runs. Send us your drawing or dimensions and we will come back with a quotation.
Why choose Multi-Swell 3760 for water and oil service?
Multi-Swell 3760 is a synthetic fibre sheet with a proprietary rubber binder, developed for liquid service. It’s suited to water, aliphatic hydrocarbons, oils and gasoline, which makes it a practical choice for pipework, pumps and fuel handling equipment where a standard fibre sheet may not cope. The continuous maximum temperature is 205°C, the pressure limit is 34.5 bar, and the minimum temperature rating of -73°C is described on the sheet as conservative.
Its physical figures suggest a gasket that settles well and holds on. Compressibility averages 15% with 40% recovery, and a creep relaxation of 30% means it retains most of its bolt load once fitted. The material also meets ABS (American Bureau of Shipping) specifications, so it suits marine installations as well as general industrial work.
Sheet thickness affects the working limits. The maximum pressure × temperature rating is 5,100 bar × °C for 1/32″ and 1/16″ sheet and drops to 3,400 bar × °C for 1/8″ sheet, so the thinner grades give you more headroom at high pressure and temperature.