24026CC/C4W64 bearings ( 130 mm x 200 mm x 69 mm) have the advantages of Self-aligning, high load-bearing capacity, and impact resistant, and are therefore widely used in the Mining machinery, metallurgical equipment, papermaking machinery, vibrating screens, wind turbines, and large industrial gearboxes.

| Part Number | 24026CC/C4W64 |
| Bearing Type | Spherical roller bearings, double row |
| Internal design | CC = Flangeless inner ring, guide ring centred on the inner ring, two stamped steel cages |
| Reference From | SKF 24026CC/C4W64 |
| Cage | CC = stamped steel cages |
| Seal | Open |
| Internal clearance | C4 |
| Weight [lb] | 17.086 |
| Permissible angular misalignment | 2 degrees |
| Heat stabilization | 392 °F (200 °C) |
| Roller bearing type | Spherical |
| Lubrication | W64 = Solid Oil |
| Bore Type | Z = cylindrical bore |
| Principal Dimensions | |
| Inside - d φ [inch] | 5.118 |
| Inside - d φ tolerance | -0.025 mm to 0 |
| Outside - D Φ [inch] | 7.874 |
| Outside - D Φ tolerance | -0.030 mm to 0 |
| Width - B [inch] | 2.717 |
| Width - B tolerance | -0.08 mm to 0 |
| d2 [inch] | 5.709 |
| D1 [inch] | 6.890 |
| b [inch] | 0.236 |
| K [inch] | 0.118 |
| r1,r2(min.) [inch] | 0.079 |
| Performance | |
| Dynamic Radial - Cr [lbf] | 127829 |
| Static Radial - C0r [lbf] | 183113 |
| Speed ratings (oil) - nG [rpm] | 2969 |
The 24026CC/C4W64 Double-row spherical roller bearings mainly consist of an inner ring, an outer ring, two rows of spherical rollers, a cage, and seals. The outer ring raceway has a spherical structure, while the inner ring has a double-row raceway. The rollers and raceways are logarithmically curved. The cage is typically made of stamped steel or machined brass.
Double-row spherical roller bearings possess excellent self-aligning properties, compensating for shaft deflection, installation errors, and misalignment. They can simultaneously withstand radial loads and bidirectional axial loads, exhibiting extremely high load-bearing capacity and strong impact resistance. Furthermore, the internal clearance can be optimized for vibration conditions, effectively reducing frictional temperature rise.















