KD045CP0 thin section ball bearing with 4.5 inch ID and 5.5 inch OD, slim open bearing featuring a 0.5 inch cross section and brass cage

Regulärer Preis $199.00 Verkaufspreis$330.00Sie sparen $131.00
SKU: KD045CP0
UPC: 00193019204610
Item Sku : KD045CP0
Type : Slim Bearings
KD045CP0 Inner (ID) : 4 1/2
KD045CP0 Outer (OD) : 5 1/2
KD045CP0 Width : 1/2

KD045CP0 Thin Section Ball Bearing 4.5 Inch ID x 5.5 Inch OD
✔️ Slim Open Bearing 0.5 Inch Cross Section with Brass Cage

This is a single-piece KD045CP0 thin section ball bearing designed for space-limited mechanical assemblies where maintaining a constant cross section and smooth rotation is critical, commonly used in robotics, automation, rotary tables, and precision equipment.

✅ Pack size: 1 thin section bearing
✅ Slim CP series design with constant 0.5 inch cross section
✅ Open configuration for externally lubricated systems
✅ Brass cage for strength and stable ball spacing
✅ Suitable for radial loads in compact rotating assemblies
✅ Made for precision motion where weight and space matter
✅ Marked VD045CP0 and supplied by VXB

Dimensions
(alle dimensions inches)

Inner Diameter 4.500
Outer Diameter 5.500
Width 0.500
Cross Section 0.500

Load Ratings
(all values shown in metric as supplied)

Dynamic Load 7.028 kN
Static Load 17.58 kN

Weitere Spezifikationen

Bearing Type Thin section slim bearing
Cage Material Brass
Enclosure Open
Brand VXB
SKU KD045CP0

💡 Why are slim thin section ball bearings used in precision rotary systems with limited space?
Thin section slim bearings are selected when designers need consistent geometry without sacrificing rotational accuracy.

  • Constant cross section allows compact housings and predictable stiffness

  • Reduced weight improves efficiency in moving assemblies

  • Brass cages maintain stability under continuous rotation

  • Open designs support custom lubrication strategies in controlled environments

This KD045CP0 thin section bearing is a handy solution when you need reliable rotation, tight packaging, and predictable performance in precision-driven mechanical systems.